HPE NonStop Reflex (often referred to as Reflex 80:20) is a graphical, integrated IT management suite developed by Insider Technologies. It provides continuous health monitoring, automated workflow management, and diagnostic logging for mission-critical HPE NonStop environments, serving as a single, consolidated “pane of glass” for fault-tolerant network operations.
Detailed Timeline Breakdown by Era & Year
The history of the NonStop Reflex suite closely mirrors the architectural evolution of the underlying HPE NonStop (originally Tandem) fault-tolerant hardware platforms.
1. The Tandem / ITUG Era (1989 – 1996)
1989: Insider Technologies was founded in Salford Quays, Manchester, UK, establishing an early specialization in Tandem (NonStop) messaging software and message tracking utilities.
1990s: As massive online transaction processing (OLTP) workloads grew, native Tandem utilities proved increasingly cumbersome. This spurred the initial development of platform diagnostic and event-filtering tools that would soon become the Reflex suite.
1995: Insider Technologies actively codes and launches the initial iterations of Reflex 80:20, providing operators with an aggregated view of Tandem platform events.
2. The Compaq & Early HP Transition Era (1997 – 2014)
1997: Compaq acquires Tandem Computers. Reflex 80:20 begins updating its backend architecture to handle ServerNet clustering and the newly combined enterprise platforms.
2002: Hewlett-Packard (HP) acquires Compaq. HP begins the hardware migration from proprietary processors to Intel Itanium (HP Integrity NonStop).
2004: Insider Technologies formalizes its ongoing product development, heavily pushing both Reflex 80:20 and releasing new variants like Reflex ONE24 to support extended tracking for ATM and POS networks.
2007: Reflex and other Insider monitoring software platforms are highly integrated into FIS solutions, serving tier-one global banks and stock exchanges.
2013: Insider Technologies solidifies the Reflex 80:20 status as the ultimate consolidated replacement for legacy HP components, publishing technical insights in dedicated NonStop journals.
3. The Modern HPE & x86 Era (2014 – 2019)
2014: Hewlett Packard Enterprise (HPE) is formed and officially launches NonStop X, moving the architecture onto standard Intel x86-64 processors. Reflex 80:20 interfaces are updated to support InfiniBand fabrics and the newer Open System Services (OSS) environments.
2017 – 2019: HPE launches Virtualized NonStop (vNS), bringing continuous application fault tolerance directly to private and hybrid clouds. Reflex adapts its system management capabilities to securely monitor both physical x86 non-stop servers and virtual hypervisor instances.
4. The AI & Hybrid Cloud Era (2020 – 2026)
2020: HPE ends the sale of older Itanium-based platforms. Reflex fully commits its diagnostic support to modern HPE NonStop X and vNS environments.
2023 – 2024: The NonStop platform embraces AI integrations, expanded SQL/cloud workloads, and integrations with modern DevOps tools. Reflex tools receive updates to accommodate enhanced cyber resilience tracking and modern API-driven services.
2025: HPE celebrates 50 years of the fault-tolerant NonStop computing ecosystem. The Reflex suite provides compatibility for the upgraded, high-capacity hardware iterations running the L25 series OS.
2026: Reflex remains a staple ecosystem management suite for complex enterprise networks, processing and escalating exception conditions, EMS events, and subsystem alerts within the highly available HPE GreenLake consumption models.
The Insider RTLX product at ETI-NET is now called C-Deep for Transaction Monitoring;
The BASE24 electronic payment system developed by ACI Worldwide exists in two primary architectural generations:
BASE24 Classic (historically deployed on HPE NonStop / Tandem fault-tolerant hardware) and
BASE24-eps (Enterprise Payments System, built using an object-oriented C++ framework deployable across open systems, z/OS, and cloud infrastructure).
Despite structural differences, both share a highly optimized, component-based transaction routing engine.
BASE24 architecture overview
Core Structural Component Layers
The component architecture maps the complete end-to-end lifecycle of a financial message (such as ISO 8583) through five distinct functional sub-systems:
1. Network & Message Routing Component (XPNET)
Purpose: Coordinates all message traffic across internal processes and physical network nodes.
Function: Operates as a specialized middleware network manager that decouples low-level communication links from upper transaction routing layers.
Configuration: Relies on a Logical Network Configuration File (LCONF) to define active execution nodes, hardware lines, and physical stations.
2. Perimeter Access Layer (Device Handlers)
Purpose: Translates device-specific message protocol formats into the system’s unified internal format.
ATM Device Handlers (ATMDH): Manage direct connectivity to automated teller machines, unpack specific vendor dialects (such as Diebold or NCR states), and track terminal hardware statuses.
POS Device Handlers (POSDH): Interface with point-of-sale acquirer terminals and merchants.
Security Operations: Triggers immediate payload encryption/decryption and Hardware Security Module (HSM) PIN-block translation directly within this ingestion ring.
3. Core Transaction Logic (Authorization System)
Purpose: Determines whether a payment request should be accepted, rejected, or modified.
Full On-Us Authorization: Inspects internal databases for matching account records, positive balances, and velocity thresholds to issue real-time decisions.
Parametric/Negative Checks: Validates card status against offline negative files, usage restrictions, or custom risk parameters.
Scripting Engine: Modern BASE24-eps variants execute localized transaction routing scripts via customized operators without forcing a compile rewrite of the core engine core.
Interchange Interfaces (ICH): Package and transform the transaction payload into international network profiles (e.g., Visa, Mastercard, regional switches). It handles strict message mapping and regional network check requirements.
Host Interfaces (HIF): Create synchronous links back to an institution’s underlying Core Banking system to apply ledger adjustments, check balances, or execute real-time holds.
5. Offline & Administrative Subsystems
Extract Component: Gathers active transaction logs and streams filtered payloads out to analytical reporting databases.
Refresh Component: Updates terminal operational data, key packages, and card exclusion lists from parent systems down to active execution nodes.
Settlement Initiator: Groups, cleanses, and batches net-clearing totals to finalize payment entries into regional clearinghouses.
Architectural Divergence: Classic vs. EPS
The structural design varies significantly depending on the generation of the software deployment:
BASE24 and BASE24-eps architecture overview
End-to-End Component Transaction Flow
An ATM transaction arrives at the network interface layer managed by XPNET.
The message is routed to the Device Handler, which strips hardware packaging and requests translation from the HSM.
The clean internal message passes to the Authorization Engine.
If it is a “Not-On-Us” card, the engine identifies the destination BIN and transfers routing control to the Interchange Interface.
The Interchange Interface maps the payload to the external scheme standard (such as Visa) and transmits it to the external network.
The outbound network response is unwrapped by the Interchange component and tracked through the core engine to log final response codes.
The transaction safely records inside the active log file, allowing the Extract / Settlement components to pick it up later during batch processing.
Business Analyst (BA) interview prep focuses on demonstrating how you translate business problems into technical/process solutions. Preparation revolves around three core pillars: competence (technical knowledge), communication (behavioral stories), and cultural fit.
1. Technical & Core Knowledge Prep
Familiarize yourself with the fundamental BA methodologies, documentation, and tools:
Methodologies: Understand the differences between Agile (Scrum, Kanban, sprints, user stories) and Waterfall (structured phase-gating).
Documentation: Review how to create a Business Requirements Document (BRD), Functional Requirements Document (FRD), and Software Requirements Specification (SRS).
Process Modeling: Refresh your knowledge on reading and creating Use Cases, User Stories, and UML diagrams (Activity diagrams, Flowcharts).
Requirements Gathering: Be ready to discuss techniques like interviews, workshops, prototyping, and document analysis.
2. Behavioral & Scenario Prep (The STAR/STARS Method)
Expect situational questions that require you to tell a story about your past experience. Structure your answers using the STAR method (Situation, Task, Action, Result):
Conflict Resolution: How do you align stakeholders with opposing views or conflicting priorities?
Scope Creep: How do you manage a stakeholder requesting major changes midway through a project?
Ambiguity: Tell me about a time you had to work with limited data or changing requirements.
Failure/Mistakes: Describe a time you made an analytical error or missed a requirement and how you resolved it.
3. Interview Action Items Checklist
Work Samples: Bring a physical or digital portfolio containing redacted work samples (e.g., a process flow, user story backlog, or requirements document you’ve built).
The 30-60-90 Day Plan: Think about how you would approach the first few months on the job. (e.g., Day 1-30: Learn the business domain; Day 31-60: Map current processes; Day 61-90: Identify optimization opportunities.)
Reverse Questions: Prepare engaging questions to ask the interviewer, such as: “What does success look like in this role in the first 6 months?” or “Can you share more about how BAs collaborate with the technical team here?”
Action Man Soldier by parity, with gripping hands, 1970s
The Action Man Soldier with Gripping Hands is a legendary 12-inch military action figure produced in the UK by Palitoy under license from Hasbro. First introduced in 1973, this milestone version of the classic Action Soldier replaced the previous “hard hand” iterations with a new, soft plastic compound designed to realistically hold rifles, pistols, and equipment.
Era & Key Innovations
1973 Debut: Palitoy launched the updated figure in a freshly illustrated box featuring the text “Now with Gripping Hands”.
Flock Hair: This era retained the realistic fuzzy blonde, brown, or auburn flock hair originally introduced in 1970.
Signature Details: The figure featured Action Man’s distinctive square jaw and the iconic copyrighted battle scar on the right cheek.
Body Construction: Built using the standard 1960s/70s articulation setup featuring internal elastic stringing, crimped metal eyelets, and metal rivets.
Equipment & Box Variations
The standard 1973 Action Man Soldier package underwent several production tweaks throughout the mid-1970s:
The 1973 Box: Early printings mistakenly listed “Gaitors” in the contents list on the packaging, though they were not actually included in the box.
The 1975 Update: Palitoy corrected the box text to remove the mention of gaiters, updated the artwork, and added a revised “made in Hong Kong” manufacturing credit.
Standard Gear: The standard uniform typically included olive green army denim fatigues (jacket and trousers), a flat black plastic beret, tall brown boots with dished soles, a life-size replica dog tag, and an Army Manual.
Collector’s Note on Condition
When seeking a vintage 1970s figure on marketplaces like eBay, pay close attention to the hands. The early 1973 flexible hand compound (often made of Kraton) is notoriously prone to perishing over time. It is highly common to find vintage figures where the hands have turned dark orange, gone completely hard, become brittle, or disintegrated entirely. Intact, supple original hands significantly drive up the figure’s valuation.
MultiBatch is a robust enterprise workload automation and job scheduling tool designed specifically for the HPE NonStop parallel architecture. Developed originally by Insider Technologies and subsequently managed/distributed alongside partners like ETI-NET, it enables organization-wide task automation.
MultiBatch provides high-performance, concurrent execution of batch schedules across multiple nodes. It natively supports both Guardian and OSS environments. By utilizing modern graphical user interfaces (GUIs) alongside traditional Pathway components, it eliminates the need for complex, manual, and high-maintenance TACL or JCL scripts.
Core Technical Capabilities
Parallel Execution: Uses NonStop architecture to execute batch workloads concurrently across one or multiple nodes.
Advanced Scheduling: Drives automated tasks based on time parameters, complex intervals, custom calendars, and direct cross-job dependencies.
Reusable Infrastructure: Environment classes—including PARAM, ASSIGN, DEFINE, FD, and environmental variables—can be configured once and safely shared across various jobs.
Inbuilt Disaster Recovery: Features automated, built-in monitor recovery mechanisms to preserve execution integrity during hardware or connection failures.
Seamless Migration: Simplifies moving production workloads between environments via a deep migration utility that automatically handles environmental translation without manual intervention.
Timeline Breakdown by Year and Version
The evolution of MultiBatch highlights its transition toward broader configuration capacities, simplified environment integrations, and eventual product lifecycle milestones.
2020: Operational and Security Consolidation
Version Focus: Pre-v10 Infrastructure (Enterprise Deployments)
Key Enhancements:
Formalized rigid separation of internal user roles, establishing MBAT.OPS for view-only status monitoring and MBAT.CONFIG for structural schedule maintenance.
Refined the “Migrator” module, eliminating manual TACL operations when extracting and inserting batch definitions across network test and production nodes.
Added capabilities allowing all MultiBatch jobs to execute securely under the system Batch Monitor Process (BMON) owner or explicitly assigned application user IDs.
2022 (November): MultiBatch Version 10.0 Launch
Version Focus: Architecture Restructuring
Key Enhancements:
Define Classes: Introduced reusable Define Classes to group environments cleanly.
Scale Upgrades: Upgraded the main Batch Monitor (BMON) subsystem to actively scale up to 2,500 jobs concurrently.
Parameterization: Modified the core configuration boundaries and decoupled utility processes (MBPARHK) to seamlessly process non-step related records across database structures.
Clean Up: Formally deprecated legacy components including UTCSV to reduce technical debt.
2023 (February): MultiBatch Version 10.1 Refinement
Version Focus: OSS Overhaul & Operational Control
Key Enhancements:
OSS Reworking: Re-engineered and optimized support for Open System Services (OSS) processes, granting them equal parity with traditional Guardian tasks.
On-Demand Execution: Enabled ad-hoc “On Demand Job” invocation directly through user channels without altering master schedules.
Conditional Variables: Extended character limits for Conditional Parameter values up to 100 characters.
Subsystem Unification: Consolidated Event Timer processing and Conditional Parameters fully into standard MultiBatch menus, auditing frameworks, and security tracking.
Control Commands: Integrated the SWITCH BMON command line directive to easily pass control between operational monitors.
Interface Upgrade: Rolled out an entirely new Ops GUI Server to modernize scheduling visibility.
Current Era: Version 10.2 Maintenance & Commercial Sunset
Version Focus: Version 10.2 / Product Lifecycle Transition
Key Milestones:
MultiBatch 10.2: Operates as the current, stable production tier delivered via ETI-NET, featuring deep parameterization and centralized network deployment protocols.
Commercial End of Life: As of March 1, 2026, new software licenses for Multi-Batch are no longer available for purchase. The software has officially reached the end of its commercial sales life.
Ongoing Support: Existing license holders retain full permission to execute, maintain, and run the product inside their environments according to their long-term licensing agreements.
HPE NonStop MultiBatch Batch Job Scheduling Overview and Timeline
sp/ARCHITECT was a pioneering electronic banking and funds-transfer software suite. Originally built by the UK-based Software Partnership (TSP), it ran natively on fault-tolerant Tandem (now HPE NonStop) systems. It provided highly available transaction routing and real-time electronic book-keeping for major international financial institutions.
Detailed Timeline by Era and Year
1. The Genesis & Independent Era (Mid-1980s – 1989)
Mid-1980s: The Software Partnership (TSP) is co-founded in Timperley, UK. Development begins on sp/ARCHITECT, designed with a client-server architecture.
1986: Tandem launches NonStop SQL, providing the underlying high-availability relational database foundation that sp/ARCHITECT relied upon to ensure absolute data integrity for banks.
2. Mainstream Banking Adoption Era (1990 – 1994)
1990: TSP relocates to Norton House in Runcorn, UK. sp/ARCHITECT achieves production deployment and is widely utilized for inter-account transfers and book-keeping by major banks like TSB and Bank of Scotland.
1992: Due to rapid expansion, the Runcorn operations relocate to Wingate House.
1994: Deluxe Electronic Payment Systems (a subsidiary of Deluxe Corporation) acquires TSP to expand its global electronic funds transfer (EFT) footprint. The platform is globally marketed and supported, expanding to clients like Rabobank.
1990: TSP relocates to Norton House in Runcorn
1992: Due to rapid expansion, the Runcorn operations relocate to Wingate House.
3. Global Expansion & Compaq Transition Era (1995 – 2005)
1995 – 1997: The Runcorn-based team (operating as Deluxe Data) codes additional regional adaptations of sp/ARCHITECT for banks worldwide (e.g., Girofon in Denmark).
1997: Compaq acquires Tandem Computers, placing sp/ARCHITECT on Compaq’s enterprise roadmap.
2002: Hewlett-Packard (HP) acquires Compaq, absorbing the Tandem platform into the HP Integrity server line. The application undergoes adaptation to integrate modern Windows-based management systems (like DSM/NOW).
4. The HPE Modernization & Hybrid Era (2014 – 2026)
2014: HPE (Hewlett Packard Enterprise) is formed, spinning off from HP. NonStop shifts to Intel x86-64 architecture (NonStop X), requiring sp/ARCHITECT and related Tandem subsystems (like Pathway, COBOL, and TAL) to modernize for TNS/X processing.
2020: Legacy Itanium-based environments are phased out. sp/ARCHITECT systems, if still active, are migrated to virtualized NonStop (vNS) and operated within private cloud infrastructures.
2025/2026: HPE NonStop celebrates its 50th Anniversary. Applications originally designed on the sp/ARCHITECT schema are heavily evaluated for AI integration, continuous cyber resilience, and consumption-based models like HPE GreenLake.
Agile estimation techniques use relative sizing rather than exact time tracking to gauge the effort, complexity, and risk of completing tasks. These collaborative methods help Scrum teams maintain predictable delivery and realistic workloads without relying on rigid, top-down predictions.
Common Agile estimation techniques include:
1. Planning Poker
How it works: Team members use a deck of cards with values from the modified Fibonacci sequence (0, 1, 2, 3, 5, 8, 13, 21, etc.). The Product Owner presents a user story, the team discusses it, and each member privately selects a card representing their effort estimate.
When to use it: Ideal for detailed sprint planning and backlog refinement, especially when you need to encourage team collaboration and reach a consensus.
2. T-Shirt Sizing
How it works: Tasks are assigned sizes (XS, S, M, L, XL) based on high-level complexity rather than precise points.
When to use it: Excellent for rapid, broad-brush estimation during initial release planning or when mapping out large Epics that aren’t yet refined into granular user stories.
3. Affinity Estimation
How it works: The team collaboratively groups user stories on a wall or digital board into columns representing different sizes. Every team member can move a story if they disagree with its current size, creating a consensus through comparative grouping.
When to use it: Best suited for large product backlogs where many items need to be sized quickly in a single session.
4. Dot Voting
How it works: Team members receive a limited number of physical or digital “dots” to place on user stories they believe carry the highest complexity or effort, prioritizing stories based on the concentration of votes.
When to use it: Helpful for quick prioritization and establishing a baseline for relative difficulty among a large list of tasks.
5. The Bucket System
How it works: Similar to Affinity Estimation, various “buckets” (numbered with Fibonacci sequences) are laid out. Stories are placed in the buckets, which helps the team rapidly categorize relative effort.
When to use it: Great for medium-to-large backlogs requiring faster execution than traditional Planning Poker without sacrificing sizing accuracy.
Choosing between PRINCE2 and PMP depends on your career goals and location. PMP is a global, experience-based standard highly valued in the US and multinational corporations. PRINCE2 is a process-based methodology heavily favored in the UK, Europe, and government/public sectors.
A high-level text overview highlights the following core differences:
Project Management Professional (PMP)
What it is: A globally recognized framework and body of knowledge (PMBOK) that certifies a manager’s broad project leadership skills.
Focus: People, processes, and business domains. It is highly flexible and covers predictive (waterfall), agile, and hybrid methodologies.
Requirements: Strict prerequisites. Requires 36–60 months of project management experience and 35 hours of project management education before you can take the 180-question exam.
Best for: Experienced project managers seeking global mobility and opportunities in corporate and private sectors.
What it is: A structured, prescriptive methodology that gives you a step-by-step guide on how to run a project from start to finish.
Focus: Governance, defined roles, continuous business justification, and documentation. It uses a scaleable “Tailoring Approach” so it can be adapted to projects of varying sizes.
Requirements: No mandatory experience needed for the Foundation level, making it accessible to beginners. The Practitioner level tests your ability to apply the framework.
Best for: Early-to-mid career professionals and those targeting government, NHS, or public sector roles within the UK and Europe.
Official Hub: Browse certification pathways via Axelos.
Walking is a highly accessible form of exercise that offers a range of physical, mental, and lifestyle advantages. Just 30 minutes a day can significantly improve overall health, though even a brisk 10-minute walk provides measurable benefits.
Physical Health Benefits
Heart Health: Regular walking strengthens the heart, lowers blood pressure, and reduces the risk of stroke and coronary heart disease.
Disease Prevention: It helps manage or prevent type 2 diabetes by improving insulin sensitivity and controlling blood sugar levels. It is also linked to a lower risk of certain cancers, including breast and colon cancer.
Weight Management: Walking burns calories and boosts metabolism, which aids in losing body fat and maintaining a healthy weight.
Muscles & Bones: As a weight-bearing exercise, it increases bone density (reducing osteoporosis risk) and strengthens leg and core muscles, which improves balance and coordination.
Joint Support: Walking helps lubricate joints and strengthen the muscles that support them, which can alleviate arthritis pain.
Immune System: Daily walks can bolster the immune system, leading to fewer sick days and milder symptoms when you do fall ill.
Mental & Cognitive Benefits
Mood Elevation: Physical activity triggers the release of endorphins, serotonin, and dopamine, which naturally reduce stress, anxiety, and symptoms of depression.
Brain Function: Walking is linked to improved memory, focus, and creative thinking. It may also help prevent the early onset of dementia and Alzheimer’s by protecting brain volume.
Sleep Quality: Regular morning walks in natural light help regulate your circadian rhythm, making it easier to fall asleep and improving the quality of your rest.
Practical & Social Benefits
Accessibility: It is completely free, requires no special equipment (other than supportive shoes), and can be done almost anywhere.
Social Connection: Walking with friends, family, or in community groups helps combat feelings of isolation and improves social well-being.
Energy Levels: A brisk walk increases blood flow and oxygen delivery throughout the body, providing a natural energy boost that is more effective than caffeine for long-term fatigue.
Benefits of Walking Summarised
Summary of “Rules” & Methods
Various structured methods can help you get the most out of walking:
10-Minute Brisk Walk: The NHS recommends this as a baseline for significant health gains.
Japanese Walking Method (3-3-3): Alternating three minutes of fast walking with three minutes of slow walking for 30 minutes to improve cardiovascular fitness.
6-6-6 Rule: A 6-minute warm-up, a 60-minute brisk walk, and a 6-minute cool-down, often performed six days a week for weight loss.
The official HPE Nonstop Technology Architecture is a specialized, 100% fault-tolerant infrastructure built with a tightly integrated hardware and software stack designed to eliminate any single point of failure. Formal instruction and architectural frameworks have been modernized under the newly relaunched HPE Nonstop Compute Training Portfolio curriculum.
Originally developed by Tandem Computers in 1976, the platform eventually became part of Hewlett Packard Enterprise (HPE). Unlike standard servers that can crash due to a single component failure, NonStop uses a tightly integrated, “shared-nothing” architecture to ensure that if a hardware or software component fails, another instantly takes over with zero downtime or data loss.
Core Architectural Features
To understand how HPE NonStop works, you need to understand its unique design principles:
Shared-Nothing Architecture: Every processor has its own dedicated memory, I/O channels, and copy of the operating system. No single component is shared, eliminating any single point of failure.
Process Pairs: Applications run using a primary process and a backup process on a different processor. The primary process constantly copies its state to the backup. If the primary fails, the backup immediately takes over.
Massive Scalability: Systems can scale up seamlessly from small distributed environments to massive clusters containing up to 24,000 processor cores without interrupting running operations.
Hardware Platform: The modern software environment runs on industry-standard x86 architectures, available as physical server racks (like the HPE NonStop NS9 X5) or as virtualized instances in hybrid cloud environments.
Dual Operating Environments
HPE NonStop runs a specialized operating system called NonStop OS. Inside this OS, developers and administrators interact with two distinct environments:
Guardian Environment: The native, proprietary environment optimized for high-volume Online Transaction Processing (OLTP). It handles tasks sequentially through process-oriented manually-started jobs rather than traditional automated queues.
Open System Services (OSS): A UNIX-like, POSIX-compliant environment built on top of the NonStop kernel. This allows organizations to run standard open-source applications, tools, and scripts natively alongside Guardian.
Ecosystem and Use Cases
HPE NonStop is rarely used for standard office automation or basic web hosting. Instead, it serves as the backbone for global industries where an hour of downtime could cost millions of dollars:
Financial Transactions: Powers global stock exchanges, automated teller machines (ATMs), and retail point-of-sale credit card processing, eg. BASE24.
Travel and Logistics: Runs critical airline reservation systems and real-time cargo routing infrastructure.
Database Management: Features its own highly secure, distributed database engine called NonStop SQL, which guarantees absolute data integrity across all transactions.
Modern Development: Supports traditional languages like COBOL85 and ANSI C, alongside modern DevOps integrations like Git, Ansible, and Eclipse-based IDE environments.
An architectural blueprint of an HPE NonStop environment typically separates the layout into three core interdependent layers:
Hardware & Fabric Layer: Consists of independent, loosely-coupled Processor Nodes (handling up to 24,000 cores globally) connected via an ultra-fast InfiniBand or ServerNet system fabric backbone.
I/O & Subsystem Layer: Utilizes Cluster I/O Protocols (CLIMs), splitting tasks between Storage CLIMs (SCLIMs) and Network CLIMs (NCLIMs) to isolate external communication from main processing.
Operating System & DB Layer: Runs the NonStop OS, which simultaneously manages the traditional Guardian environment, Open System Services (OSS) for UNIX/Linux paradigms, and the NonStop SQL distributed database engine.
Recommended Architecture Training Curriculum
HPE organizes its technical blueprints into structured educational paths for engineers.
1. Foundational Blueprint Concepts
Course Code: U4147S (HPE Nonstop Compute System Fundamentals).
Focus: Delivers a top-down view of system goals, transaction processing, and fundamental architecture.
Key Modules: Explores Guardian vs OSS, Pathway application management, and basic database interaction.
2. System Operations & Administration
Course Code: H1SC3S (HPE Nonstop Compute System Administration I).
Focus: Maps physical and virtual components to real-world deployment.
You can review or download the targeted, one-page CV for Mark Whitfield (Senior Project Manager specializing in HPE NonStop systems) via the Mark Whitfield CV PDF link.
Mark Whitfield, High-Level Project Management Summary
The high-level, scannable overview of his professional profile is outlined below:
Executive Profile
Role: IT Senior Project Manager / Delivery Lead
Background:30+ years of experience delivering highly complex technology, business transformation, and infrastructure projects.
Core Skills: Cloud migration (hybrid), legacy ATM software modernisation, Point of Sale (POS) implementations, and software development lifecycles (SDLC).
Methodologies: Agile, Waterfall, PRINCE2 Practitioner, and ITIL certified.
Core Expertise & Competencies
HP NonStop & Legacy Integration: Deep technical roots in Tandem Computers/ HPE NonStop development, TAL programming, and high-volume transaction environments.
Global Delivery: Managed large-scale IT and system monitoring rollouts across the UK and international markets (e.g., Saudi Arabia).
Stakeholder Management: Experienced in bridging the gap between highly technical development teams and high-level business stakeholders.
For direct access to his official templates, articles, and full professional journey, you can visit the PROject Templates Website.
Microsoft Power Platform is an enterprise-grade, low-code platform that allows organizations to build applications, automate workflows, analyze data, and create AI-powered virtual agents. It natively connects to Microsoft 365, Azure, and Dynamics 365, serving as a core pillar of modern digital transformation.
Microsoft Power Platform Overview
Core Pillars
Power Apps: A low-code development environment for building custom, cross-platform business applications (Canvas or Model-driven) without writing traditional code.
Power Automate: An automation service enabling the creation of workflows, API-based integrations, and Robotic Process Automation (RPA) for legacy systems.
Power BI: A business analytics service that provides interactive visualizations and business intelligence capabilities with an interface simple enough for end users to create their own reports and dashboards.
Power Pages: A secure, enterprise-grade low-code software-as-a-service (SaaS) platform for designing, configuring, and publishing external-facing websites.
Microsoft Copilot: AI-assisted generative capabilities natively built across the platform, allowing users to build apps, write flows, or generate reports using natural language.
Foundational Technologies
Dataverse: A secure, cloud-based data storage and management layer featuring a standardized common data model, allowing disparate Microsoft tools to seamlessly share information.
Connectors: Over 1,000 pre-built wrappers that facilitate communication between the Power Platform and external services (like Salesforce, SQL databases, or REST APIs).
Power Fx: A low-code, strongly-typed functional programming language based on Excel formulas that serves as the logic layer across the platform.
Technical Evolution by Year
The Power Platform did not launch overnight; it evolved through the gradual introduction of several standalone tools before Microsoft formally unified them under one umbrella.
2013–2015: The Origins of Data Analysis & Logic
2013: Power BI is initially released as an add-in for Microsoft Excel, allowing users to build pivot tables and light analytics.
2015: Power BI transitions into a standalone cloud service. Concurrently, Power Apps enters public preview, introducing the low-code app paradigm.
2016–2017: Workflow Automation
2016: Microsoft Flow (the predecessor to Power Automate) is launched to handle cloud-based workflow automation.
2017: Common Data Service (now Dataverse) is introduced to provide a standardized, secure data layer.
2018–2019: The “Power Platform” Unification
2018: Microsoft officially unifies Power BI, Power Apps, and Microsoft Flow under the official name “Microsoft Power Platform”, introducing the formal concept of a connected, low-code business ecosystem.
2019: The Common Data Service gets deeper integration across Dynamics 365 and Microsoft 365, accelerating citizen development across large enterprises.
2020: AI and Robotic Process Automation (RPA)
2020: Microsoft launches AI Builder, allowing users to integrate pre-trained AI models (like form processing and object detection) directly into their apps and workflows.
2020: Softomotive is acquired, bringing RPA (desktop flows) into Power Automate.
2021–2022: New Additions and Expanded Web Presence
2021: The Common Data Service is officially rebranded as Microsoft Dataverse.
2021: Power Fx is introduced as the standard, open-source low-code language.
2022: Power Apps Portals is rebranded and expanded into Power Pages, creating a dedicated, robust tool for building external-facing websites.
2023–2024: The Generative AI Wave
2023: Microsoft embeds generative AI across the suite through Copilot. Users begin building data tables, applications, and automation flows entirely through conversational prompts.
2024: Power Platform deepens its integration with Microsoft Fabric and brings further enterprise-grade management, data governance, and AI agent orchestration features directly into Dataverse.
2025–2026: Agentic Computing and Modern Controls
2025: Power Platform evolves beyond standard applications and automations into “agentic computing.” Makers can build autonomous, AI-driven data agents directly within Dataverse using the Python SDK.
2026: Power Apps rolls out massive updates to its interface, deploying responsive layouts and modern controls as default settings. Advanced lifecycle management and process-mining features cement the platform’s role in modern fusion development.
My Recent MS Power Platform Involvement :
UK Gov : Cloud Migration (Hybrid) – In 2020, working as a Senior Project Manager on a client sponsored Agile proof-of-concept (POC) project to move 3 Client elected Apps (with MS Access, Oracle and SQL 2008 DBs), to the Cloud (Microsoft Azure and Dynamics365 Power Platform). The migration to the cloud was based on 3 primary app patterns namely; re-host, re-platform and re-factor. This project spanned approximately 3 months and started in early February 2020 with a budget of £375k.
The project was a pre-cursor and effort indicator for the larger piece of migration work to move 130 client estate apps to the cloud. This is a very complex app estate with many touch points and different technology stacks.
As the Capgemini Senior PM, responsible for the project planning, control, organisation, stakeholder communication, aligning with current GDPR directives and status reporting against delivery of Capgemini services to the client. As the PM, also the first escalation point for the project team and the client.
December 2022 – C&CA UK’s Communications & Engagement Award Winner – Cloud & Custom Applications – Capgemini UK
Project Management Office (PMO) models dictate the structure, control level, and strategic focus of a PMO within an organization. The most common frameworks break down into three primary operational types, alongside broader structural and strategic classifications that define how governance is applied.
Project Management Office (PMO) models overview
1. Operational Models (By Control Level)
These models define how the PMO interacts with project teams and enforces standards.
Supportive PMO: Acts as an advisory entity. It provides templates, best practices, training, and tools on demand, but has no direct control or authority over project execution. Best for: Organizations with a decentralized, highly autonomous culture.
Controlling PMO: Enforces strict governance, standardizes methodologies, and ensures compliance across all initiatives. It provides more than advice and actively verifies adherence, but typically relies on established escalation paths rather than direct authority. Best for: Organizations that need consistency and reduced risk.
Directive PMO: Assumes full control and direct ownership of projects. The PMO assigns project managers, directs resources, and takes total responsibility for execution, timelines, and outcomes. Best for: Complex or mission-critical projects requiring rigid governance.
2. Structural Models (By Scope & Placement)
These classifications indicate where the PMO sits and its organizational reach.
Enterprise PMO (EPMO): Operates at the highest organizational level, overseeing the entire project portfolio. It ensures all programs directly align with overarching corporate business objectives and strategy.
Departmental/Divisional PMO: Supports specific business units (such as IT, Marketing, or Engineering). It is highly tailored to the specialized needs of that function, though it runs the risk of creating siloed practices.
Embedded or Project-Specific PMO: A temporary model dedicated to one large, highly complex, or mission-critical project or program. It lasts for the duration of the project and then disbands or reallocates.
3. Advanced / Strategic Models (By Focus)
Modern organizations often adapt the PMO to focus on high-level value rather than just tracking timelines.
Center of Excellence (CoE): Focuses heavily on continuously elevating the organization’s project management maturity. It acts as an innovation hub for methodologies, technology evaluation, and skill-building.
Value Management Office (VMO): Focuses entirely on benefits realization and return on investment (ROI). Rather than just asking “are we on time?”, it asks “is this project generating the business value we wanted?”
A Project Management Office (PMO) is a centralized department within an organization tasked with standardizing project management processes, enforcing governance, and aligning projects with strategic business goals. Its primary mission is to optimize resource utilization, mitigate risks across the portfolio, and improve the overall success rate of projects.
The core responsibilities of a PMO vary based on its organizational maturity and type (Supportive, Controlling, or Directive), but generally span five major domains:
1. Governance and Standardisation
Developing Methodologies: Establishing uniform frameworks, processes, and project management methodologies (such as Agile, Waterfall, or hybrid models) across all departments.
Creating Templates: Developing standard documentation, templates, and tools to ensure consistency in project initiation, tracking, and reporting.
Conducting Audits: Monitoring compliance with established standards through health checks and project reviews to identify and correct process deviations.
2. Strategic Portfolio Management
Strategic Alignment: Ensuring every project investment directly supports the organization’s high-level strategy and long-term business goals.
Project Prioritization: Evaluating incoming project proposals and business cases to prioritize high-value initiatives while deferring or canceling low-priority options.
Benefits Realization: Tracking and measuring project outcomes to ensure that completed deliverables provide the expected economic or structural value to the company.
3. Monitoring, Tracking, and Reporting
Performance Reporting: Collecting and analyzing performance metrics via dashboards to provide regular progress updates to senior executives and stakeholders.
Dependency Management: Tracking cross-project dependencies, scheduling overlaps, and potential bottlenecks to prevent organizational conflicts.
Risk Management: Identifying systemic risks and early-warning signs of failing projects to trigger timely interventions or escalation protocols.
4. Resource and Capacity Management
Resource Optimization: Coordinating the allocation and utilization of personnel, skill sets, and budgets across the entire project portfolio.
Capacity Planning: Assisting line managers with strategic capacity planning to identify talent gaps, prevent team burnout, and support hiring decisions.
Effort Estimation Support: Providing historical data and expert insights to help project teams produce accurate cost and time estimates.
5. Training and Knowledge Management
Mentorship and Coaching: Providing regular guidance, professional coaching, and continuous support to project managers and their delivery teams.
Skills Development: Organizing training sessions and educational paths on core project management practices, specialized software, and new industry standards.
Lessons Learned Repository: Maintaining a centralized repository of project documentation, historical metrics, and post-project reviews to drive continuous organizational learning.
Scrum velocity and burndown charts are essential agile metrics used to measure team capacity and track progress. Velocity measures the average story points completed over past sprints to forecast future capacity. Burndown charts visually represent the remaining work daily, highlighting if the team is on track to meet sprint goals.
Scrum Velocity
Definition: The amount of work (usually in story points or hours) a team completes in a single sprint.
Purpose: Helps forecast team capacity for future sprints and promotes sustainable pace.
Calculation: Sum of story points for all “Done” items at the end of a sprint.
Best Practice: Average velocity over 3–5 sprints provides a more accurate, stable forecast.
Burndown Chart
Definition: A graph showing the amount of work remaining versus time (days) in a sprint.
Components:
Ideal Work Line: A straight line showing the projected pace to complete work.
Actual Work Line: A line plotting daily completed work against the ideal line.
Purpose: Provides daily visibility into progress and detects risks early (e.g., if the line is above the ideal, the team is behind).
Types: Sprint Burndown (short term) vs. Release/Product Burndown (long term).
Key Differences
Velocity is a planning metric looking at historical performance.
Burndown is a monitoring tool looking at current progress.
Common Pitfalls
Velocity: Treating velocity as a productivity metric (it is a capacity planning metric) or comparing it between teams.
Burndown: Using “manual updates” rather than automated tools, leading to inaccurate data.
Both: Neglecting to refine user stories, which makes velocity unpredictable and burndowns inaccurate.
Business analyst deliverables are essential documentation and artifacts produced throughout a project to define business needs, bridge gaps between stakeholders and technical teams, and ensure solutions deliver value. Key deliverables include the Business Case, Stakeholder List, Requirement Packages (BRD/User Stories), Process Models, and Transition Requirements.
Core Business Analyst Deliverables by Phase:
Initiation/Discovery:
Business Case: Outlines the justification for the project, including cost-benefit analysis and ROI.
Problem Statement/Project Scope: Defines the “why” and boundaries of the project.
Stakeholder Map/Matrix: Identifies key stakeholders and their influence.
Planning:
Business Analysis Plan: Outlines the approach, tasks, and techniques to be used.
Communication Plan: Defines how stakeholders will receive updates.
Elicitation & Analysis:
Current State Assessment (As-Is): Documents how processes work today.
Future State Modeling (To-Be): Visualizes the desired future processes.
Gap Analysis: Details what needs to change to get from current to future state.
Business Requirements Document (BRD): A formal document detailing what the business needs to achieve.
Solution Definition (Design & Implementation):
Functional/Non-Functional Requirements (SRS): Technical details on how the system should act.
Use Cases/User Stories: Detailed scenarios of user interactions with the system.
Prototypes/Wireframes: Visual representations of user interfaces.
Product Backlog (Agile): A prioritized list of user stories.
Evaluation & Closure:
Acceptance Criteria & Test Cases: Defines the criteria for a completed feature.
Solution Assessment/Validation Report: Evaluates if the delivered solution met the needs.
Lessons Learned/Closing Report: Documents successes and improvements for future projects.
Key Takeaways:
Formal vs. Informal: Plan-driven (Waterfall) projects use heavy formal documentation (BRD, SRS), while change-driven (Agile) projects focus on lighter tools like user stories, Jira tickets, and prototypes.
Value-Driven: Deliverables exist to facilitate communication, align stakeholders, and ensure project success.
Note: The specific deliverables required are usually determined in the initial project planning stage.
Mark Whitfield, a Manchester-based Senior IT Project Manager, has completed extensive professional training throughout his career, focusing on project management methodologies, delivery software, and technical tools.
Core Project Management Methodologies :
PRINCE2 Practitioner: Certified as a registered PRINCE2 Practitioner in May 2011 via the ILX Group (Gold e-Learning).
Agile SCRUM Training: Attended in-house training with RADTAC in May 2011.
Advanced Engagement Management (Level 2): Completed at Capgemini in November 2017.
Project Management Fundamentals: Completed “Fundamentals of Successful Project Management” in February 2000 through Skillpath in Manchester.
Managing Multiple Projects: Attended “Managing Multiple Projects, Objectives and Deadlines” in October 1999/1998 via Skillpath.
Software & Cloud Platforms :
AZ-900 Microsoft Azure Fundamentals: Certified in February 2022.
Microsoft Project: Completed the Microsoft Project ’98 Certification Series in May 2000 through the IIL UK Education Centre in Reading.
Microsoft Excel Expert Skills: Upgraded skills via a 2017 Expert course and a July 2024 Udemy refresher.
Technical & Programming Courses :
Tandem / HP NonStop: Completed Tandem Guardian Principles (1993), Tandem Performance Analysis (1995), and Tandem TAL Programming (1995).
C / C++ Programming: Attended “C++ for Non-C Programmers” with Comtec Computer Training in March 1997.
Database Querying: Completed “Querying Microsoft SQL 2000 with Transact SQL” via QA Training in March 2009.
Web Applications: Attended “Developing MS ASP Web Applications using MS Visual Studio .NET” in January 2007.
Marketing & Communication Training :
Writing for the Web: Completed in May 2009 with gbdirect (iTrain Education in London).
Brochure & Document Design: Attended a SkillPath Seminar on designing marketing brochures and reports in April 2006.
A RAID log is a central project management tool used to track Risks, Assumptions, Issues, and Dependencies to ensure project success and stakeholder alignment. It is essential for complex projects, updated regularly to manage, monitor, and mitigate factors that could affect deliverables, typically maintained as a living spreadsheet or document.
Key Components of a RAID Log
Risks: Potential future problems identified and mitigated before they occur (e.g., “supplier may delay shipment”).
Actions: Specific tasks, action items, or decisions that need to be addressed, often used in agile projects.
Issues: Known, current problems that have already occurred and require immediate resolution.
Dependencies: Internal or external relationships that, if not managed, can cause delays, such as waiting on another team.
Benefits of Using a RAID Log
Proactive Planning: Allows teams to identify and prepare for potential issues early.
Centralized Information: Provides a single, updated document for tracking, improving communication with stakeholders.
Improved Decision-Making: Helps in making informed decisions by logging the impact of changes.
Audit Trail: Acts as a record for project meetings, reviews, and post-mortem analysis.
How to Implement a RAID Log
Start Early: Create the log during the project planning or initiation phase.
Update Frequently: Review and update the log consistently, at least after every team meeting or weekly.
Assign Owners: Ensure every risk and issue has a specific person responsible for it.
Use a Template: Use an Excel or project management software tool, tracking columns like description, owner, impact, and status.
While some teams use it primarily for risks and issues, the “A” and “D” can stand for Actions and Decisions, respectively, depending on the team’s needs.
Mark Whitfield is a highly experienced Senior IT Project Manager based in Manchester, UK, with over 31 years of experience in the IT industry specializing in both Agile and Waterfall methodologies. He holds SC clearance (valid until 2031) and has a strong technical background in banking and digital project delivery, including experience as a developer in software development lifecycles (SDLC).
Mark Whitfield is a highly experienced Senior IT Project Manager based in Manchester
Professional Biography
After graduating in Computing in 1990, Mark began his career as a programmer specializing in Electronic Banking software on Tandem Mainframe Computers (HPE NonStop). He spent five years coding in COBOL85 and NonStop SQL for banking clients before transitioning into project management.
Mark has operated as a Senior IT Project Manager for over two decades, delivering complex projects for major blue-chip clients, including Jaguar Landrover, Heathrow, Royal Mail Group, and various financial institutions. He currently provides project management templates based on his extensive experience via his website, PROject Templates.
Example POaP Plan On a Page templates by Mark Whitfield
Projects: Delivered Waterfall and Agile digital projects for automotive, local regional government (LRG), postal services, and aerospace & defence sectors.
C&CA UK’s Communications & Engagement Award Winner 2022
Betfred (Late 2014 – Jan 2016)
Role: Senior IT Project Manager.
Projects: Managed mobile and online gambling/casino projects, including payment gateways, sportsbook, and virtual gaming using Agile SCRUM.
Wincor Nixdorf (Sept 2013 – Late 2014)
Role: Agile IT PM, Professional Services – Banking Division.
Projects: Managed ATM software delivery (Wincor Nixdorf work stream >£5M) for Lloyds Banking Group/Halifax.
Mark Whitfield provides a variety of Plan On a Page (POaP) templates designed to simplify complex project schedules into a single, high-level visual. These templates are typically available through his official website as part of a larger project management toolkit that includes over 200 editable documents.
PowerPoint Plan On a Page (POaP) templates
Mark Whitfield’s POaP Template Formats
Whitfield’s templates are available across multiple platforms to suit different project needs:
PowerPoint POaP Templates
Includes over 35+ slide examples showing different ways to visualise a Software Development Life Cycle (SDLC) plan. These are ideal for client presentations where high-level detail is needed.
Excel POaP & Tracker Templates
Features Gantt views, resource costing grids, and Agile Sprint views. Some Excel versions allow you to align the POaP with resource availability and overall phase costs, useful for project bids.
MS Project (MPP) Templates
Detailed PRINCE2 and Waterfall templates that can be condensed into a “timeline” view to serve as a POaP. These are annotated for tasks like Agile Scrum ceremonies or specific PRINCE2 7th Edition stages.
Key Features of the POaP Templates
Adaptability: Templates are designed to be tailored for Waterfall (PRINCE2) or Agile (Scrum/Sprints) methodologies.
Integrated Tracking: Often bundled with RAID logs (Risk, Action, Issue, Dependency) and RACI trackers to provide a complete overview beyond just the schedule.
Visual Dashboards: Many versions include self-populating charts and summary dashboards for at-a-glance status reporting.
Availability: Templates can be purchased individually or as a bulk pack on Mark Whitfield’s Website or through platforms like Etsy and Eloquens.
A Service Delivery Manager (SDM) acts as the primary liaison between an organization and its clients, ensuring services are delivered efficiently, meeting contractual obligations (SLAs), and maintaining high client satisfaction. They oversee daily operations, manage client relationships, and drive continuous service improvements.
Key Responsibilities and Duties:
Client Relationship Management: Acting as the central point of contact for service-related issues, leading service review meetings, and ensuring client satisfaction.
SLA & Performance Monitoring: Monitoring key performance indicators (KPIs) and Service Level Agreements (SLAs) to ensure compliance with contractual obligations.
Operational Excellence: Implementing best practices, identifying areas for improvement, and managing continuous service improvement plans.
Incident Management: Managing escalated service issues, leading root cause analysis (RCA), and ensuring swift resolution to restore service.
Team Leadership: Providing guidance, mentoring, and support to technical or support teams to meet performance goals.
Financial Management: Overseeing budgets, managing service credits, and identifying opportunities for cost savings or added value.
Required Skills and Qualifications:
Experience: Proven track record in service delivery, customer success, or project management.
Framework Knowledge: Strong understanding of ITIL frameworks is often required.
Communication: Excellent verbal and written communication skills for building rapport with clients and stakeholders.
Analytical Thinking: Ability to analyze service performance data and make data-driven decisions.
Leadership: Strong leadership skills to drive improvements and resolve conflict.
Common Industries:
Information Technology (IT) & Managed Service Providers (MSPs)
A Project Management Office (PMO) is a centralized department or group that defines, maintains, and ensures project management standards across an organization. It serves as the “command center” that aligns project execution with broader business strategy to improve success rates and ROI.
Core PMO Models
The level of control a PMO exerts depends on its specific operational model:
Supportive PMO: Provides a consultative role by supplying templates, best practices, and training. It has low control, acting primarily as a project repository.
Controlling PMO: Enforces governance and requires compliance through specific frameworks and tools. It maintains a moderate degree of control.
Directive PMO: Directly manages projects by assigning project managers who report to the PMO. This model offers the highest degree of control and accountability.
Key Responsibilities
A PMO’s daily functions bridge the gap between high-level strategy and ground-level execution:
Common PMO Roles:
Common PMO Roles
Staffing varies by organization size, but typical roles include:
PMO Director/Manager: Oversees the entire office, ensuring processes are followed and goals are met.
PMO Analyst: Collects and analyzes project data to support decision-making and reporting.
Project/Portfolio Managers: Lead individual projects or entire portfolios to completion.
PMO Specialist: Focuses on implementing methodologies and providing expert advice on project management.
Organizational Levels
PMOs can operate at different tiers within a company:
Project PMO: Focused on a single, large-scale project.
Program/Department PMO: Oversees a group of related projects within a specific department (e.g., IT or Marketing).
Enterprise PMO (EPMO): Operates at the executive level, ensuring all projects across the entire organization align with strategic corporate goals.
Business Analysts and Artificial Intelligence AI, future
Artificial Intelligence (AI) is fundamentally shifting the role of the Business Analyst (BA) from a focus on routine data processing and documentation to more strategic, human-centric activities. While AI excels at identifying patterns and automating labor-intensive tasks, it currently lacks the contextual awareness and emotional intelligence required to manage complex stakeholder relationships.
Core AI Applications for Business Analysts
AI functions as a high-speed “copilot” that streamlines the traditional BA lifecycle.
Requirement Generation: AI can process meeting transcripts to draft an initial list of requirements, user stories, or a Business Requirements Document (BRD).
Data Analysis & Forecasting: Machine learning algorithms can identify subtle trends in large datasets and move analysis from descriptive (what happened) to predictive (what might happen).
Visual Modeling: Tools can now generate process flows, data models, and architecture diagrams from simple text descriptions, drastically reducing time spent on manual formatting.
Information Elicitation: Analysts can use AI to quickly extract key details from vast document repositories or prepare for stakeholder interviews by anticipating potential questions.
Skills That Remain Uniquely Human
As AI handles the “grunt work,” the most valuable BA skills are those that cannot be easily automated.
Strategic Thinking: Connecting big-picture organizational goals to specific technical solutions and defining the “why” behind an initiative.
Stakeholder Management: Navigating office politics, facilitating discussions to resolve disagreements, and building trust across teams.
Creative Problem Solving: Tackling ambiguous business challenges where there is no clear historical data for an AI to learn from.
Critical Evaluation: Fact-checking AI outputs to ensure they are accurate and free from “hallucinations” before they influence business decisions.
The Shift from “AI4BA” to “BA4AI”
A new perspective emerging in the field is that BAs shouldn’t just use AI, but should lead the organization’s AI adoption.
Guiding Implementation: BAs act as strategic enablers, ensuring that AI projects solve meaningful problems rather than just chasing technological trends.
Managing Risk: Analysts play a critical role in addressing ethical concerns, bias detection, and security risks associated with AI-driven systems.
Bridging the Gap: They serve as the essential link between technical AI teams and non-technical business leaders to ensure projects deliver tangible value.
Future Career Outlook
The consensus among industry experts is that AI will transform—rather than eliminate—the BA profession. The market for business analytics is projected to grow significantly through 2031. Analysts who successfully integrate AI into their workflow to enhance productivity are expected to replace those who do not.
PRINCE2 Agile combines the structured governance of PRINCE2 with the flexibility of agile methods (like Scrum and Kanban) to manage projects effectively. It focuses on maintaining control, transparency, and high-quality delivery while empowering teams, making it ideal for fast-paced environments.
Key Aspects of PRINCE2 Agile:
Structure + Flexibility: It provides the framework to guide projects, while allowing the use of agile techniques to build the product.
Key Focus Areas:
The Agilometer: Assesses the level of risk and agility in a project.
Requirements: Prioritized to ensure the most valuable features are delivered first.
Rich Communication: Emphasizes face-to-face interaction and team rooms.
Frequent Releases: Ensures regular delivery and feedback loops.
Tailored Governance: Allows projects to remain aligned with organizational goals while keeping the flexibility needed for innovation.
Compatibility: Works well with various agile methods including Scrum, Kanban, and Lean Startup.
Main Benefits:
Increased Flexibility: Enables faster adaptation to changes and new information.
Improved Quality: Focuses on delivering high-quality products that meet client needs.
Enhanced Control: Provides necessary governance for project success.
When to Use:
Projects requiring both structure and high responsiveness.
Teams using Agile techniques who need to satisfy governing bodies.
Situations demanding regular, iterative delivery of results.
PRINCE2 (PRojects IN Controlled Environments) is a structured, process-driven project management method used internationally to deliver projects within time, cost, and quality constraints. Originally developed for IT projects, it has evolved into a generic, flexible, and scalable framework applicable to any type of project, now owned by PeopleCert.
Detailed Overview of PRINCE2 (2026 Framework)
As of 2026, the current framework is PRINCE2 7th Edition, launched in late 2023. It is characterized by its focus on people, digital tools, and sustainability, while retaining its core focus on governance.
MS Project MPP template example
1. The Seven Principles (Why PRINCE2 is used)
Continued Business Justification: A project must have a valid business case.
Learn from Experience: Lessons are documented and used.
Defined Roles and Responsibilities: Clear organizational structure.
Manage by Stages: Projects are broken into manageable chunks.
Manage by Exception: Empowerment given to managers to act within tolerances.
Focus on Products: Focus on deliverables rather than activities.
Tailor to Suit the Project: Adapted to suit the project’s size, environment, and complexity.
2. The Seven Themes (What must be managed)
Business Case
Organization
Quality
Plans
Risk
Change
Progress
3. The Seven Processes (How to manage)
Starting up a Project
Directing a Project
Initiating a Project
Controlling a Stage
Managing Product Delivery
Managing a Stage Boundary
Closing a Project
4. Certification Levels
Foundation: Confirms basic knowledge of the methodology.
Practitioner: Tests the ability to apply and tailor the method to scenarios.
Detailed Timeline Evolution by Era and Year
PRINCE2 has evolved from a niche IT methodology to a global standard through three major revisions.
Era 1: The Foundations (1975–1989)
1975: Simpact Systems Ltd. creates the PROMPT (Project, Resource, Organization, Management, and Planning Technique) methodology.
Early 1980s: UK Central Computer and Telecommunications Agency (CCTA) licenses PROMPT.
1989: CCTA enhances PROMPT II, renaming it PRINCE (PROMPT in the CCTA Environment), mandated for UK IT projects.
Era 2: Launch and Public Adoption (1990–2005)
1990: PRINCE is released into the public domain.
1996:PRINCE2 is released by CCTA, designed for a broader range of projects (non-IT).
2000: Ownership transfers to the UK Office of Government Commerce (OGC).
2002/2005: Major revisions to the manual structure, strengthening the “product-based planning” approach.
Era 3: Modernization & Privatization (2009–2021)
2009: Major “Refresh” released, introducing the seven principles, themes, and processes. Focuses on simplicity and customizability.
2013: Ownership transfers to AXELOS Ltd, a joint venture between the UK Government and Capita.
2017:PRINCE2 2017 Update (6th Edition) is released, focusing on enhanced flexibility and tailoring guidance.
BRD vs FRD, Business Requirements vs Functional Requirements
The primary difference between a Business Requirement Document (BRD) and a Functional Requirement Document (FRD) is that the BRD focuses on “why” a project is needed (business objectives), while the FRD details “how” the system will work to meet those needs. The BRD serves stakeholders and leadership, whereas the FRD guides developers and technical teams.
Key Differences at a Glance:
BRD (Business Requirements Document):
Goal: Defines business objectives, goals, and high-level needs.
Key Content: Business problem, scope, ROI, high-level project goals.
FRD (Functional Requirements Document):
Goal: Translates business needs into detailed technical functionalities.
Focus: “How” the system will perform to meet requirements.
Audience: Developers, Testers, Technical Team, Business Analysts.
Key Content: Feature descriptions, user interactions, system workflows, data requirements, UI mockups.
How They Work Together: The BRD is created first to get approval for the project, while the FRD is developed based on the approved BRD. The FRD ensures the project is actionable, testable, and feasible. In Agile, these are often combined into smaller artifacts like User Stories.
Mark Whitfield is a highly experienced, SC-cleared Senior Project Manager and IT professional with over 31 years of experience in both public and private sectors, specializing in software development, cloud migration, and IT systems delivery.
He is currently associated with Capgemini (since 2016) and runs a project management resource website, PROject Templates.
Joined Capgemini in 2016 having worked at ascending points in software development lifecycle projects for over 31 years
Key Qualifications & Experience:
Roles: Senior Project Manager, Engagement Project Manager, Delivery Manager, and former programmer.
Methodologies: PRINCE2 Practitioner, skilled in both Waterfall and Agile (SCRUM) approaches.
Sector Experience: Extensive experience in finance and banking, including ATM software swap-outs, cloud migration (Azure, AWS, Power Platform), and POS monitoring systems.
Background: Graduated in Computing in 1990; worked as a developer (COBOL, SQL, Tandem / HPE NonStop) before transitioning to project management.
PRINCE2 Practitioner, skilled in both Waterfall and Agile (SCRUM) approaches
Professional Highlights:
Delivered major projects for clients such as Barclays, Bank of England, HSBC, Royal Mail Group, UK & Welsh Government, Heathrow, and Jaguar Land Rover.
Led complex IT infrastructure projects and business transformations.
Maintains mark-whitfield.com, offering over 200 project management templates, trackers (RAID, budget, benefit, cost etc.), and many plans for Agile / Waterfall projects including 30+ Plan On a Page (POaP) and MS Project MPP examples (click on Blog above for a summary).
Provides specialized templates for PRINCE2 7th edition and MS Project (MPP).
December 2022 – C&CA UK’s Communications & Engagement Award Winner – Cloud & Custom Applications – Capgemini UKNovember 2017 – Advanced Engagement Management Course – Level 2 ExamJune 1990 – Higher National Diploma in Computer Studies, Distinction
As of 2026, AI is transforming project management by automating scheduling, risk management, and reporting. The best AI courses for project managers (PMs) focus on practical application, generative AI, and AI governance.
Top AI Courses and Certifications for Project Managers
PMI Certified Professional in Managing AI (PMI-CPMAI) (PMI)
Summary: The premier certification for managing AI projects from start to finish, including data prep and model deployment.
Best For: Advanced specialists managing AI projects.
Prioritization in AgileScrum is the systematic process of ordering Product Backlog items to maximize value delivery. These techniques are generally categorized by their primary focus: customer satisfaction, business value and economics, or collaborative consensus.
Category 1: Customer-Centric Frameworks
These methods prioritize features based on how they impact the end-user’s experience and satisfaction.
Kano Model: Categorizes features into three main types: Basic Needs (expected essentials), Performance Features (linear satisfaction), and Excitement Needs (unexpected “delighters”).
User Story Mapping: Visualizes the entire user journey to identify the most critical paths and “skeletal” features needed for a Minimum Viable Product (MVP).
Opportunity Scoring: Uses customer research to find gaps where importance is high but current satisfaction is low, identifying high-potential opportunities.
Category 2: Economic & Quantitative Models
These data-driven techniques use formulas to balance value against implementation costs or risks.
Weighted Shortest Job First (WSJF): Prioritizes tasks by dividing the Cost of Delay (value, urgency, and risk reduction) by Job Size (effort). The goal is to deliver the most value in the shortest time.
RICE Scoring: Calculates a score based on Reach (number of users), Impact, Confidence (certainty in estimates), and Effort.
Cost of Delay (CoD): Measures the economic impact or potential revenue loss of not delivering a feature within a specific timeframe.
Category 3: Stakeholder & Team-Based Consensus
These collaborative methods are used to reach agreement among diverse stakeholders or team members.
MoSCoW Method: A qualitative technique that buckets items into Must-Have, Should-Have, Could-Have, and Won’t-Have for a specific release cycle.
100-Dollar Test: Participants are given a hypothetical $100 to “spend” on features, revealing what they value most through resource allocation.
Priority Poker: A gamified, collaborative approach where team members anonymously vote on an item’s priority level to remove bias and foster discussion.
Category 4: Structural & Visual Matrixes
These tools help teams visualize trade-offs, typically using 2×2 grids.
Value vs. Effort Matrix: Plots tasks on two axes to identify Quick Wins (high value, low effort) and Major Projects (high value, high effort) while avoiding “thankless tasks”.
Risk/Value Matrix: Balances potential business rewards against technical or project risks to decide which high-value but high-risk items to tackle early.
Stack Ranking: A “forced ranking” method where every item has a unique, linear position (1 to N), preventing the “everything is high priority” trap.
Before launching any project, answering key questions during the initiation phase ensures alignment, prevents scope creep, and sets the foundation for success. These questions help define the “why,” “what,” and “how” of the project, often formalized in a project charter or statement of work (SOW).
Overview: The 5 Ws of Pre-Kickoff
The most effective pre-kickoff approach centers on the 5 Ws + H:
Why: What is the business purpose, problem to solve, or opportunity?
What: What are the high-level objectives, scope, and deliverables?
Who: Who are the stakeholders, sponsors, and team members?
When: What are the milestones, hard deadlines, and time constraints?
Where: Where will work take place (e.g., remote, onsite, systems used)?
How: How will success be measured and how will communication work?
Detailed Description of Essential Pre-Kickoff Questions
1. Context & Rationale (“Why”)
What is the core problem or opportunity? Define the “pain point” triggering this project.
How does this align with company strategy? Understand why this project matters now compared to other priorities.
What happens if we fail or do nothing? This identifies the true urgency.
2. Objectives & Success Criteria (“What”)
What are the measurable goals? Define success (e.g., specific KPIs, revenue increase, time reduction) rather than just stating “improved efficiency”.
What is explicitly in-scope? List the key deliverables.
What is out of scope? Crucial for preventing scope creep—list items that won’t be delivered.
What is the “Minimum Viable Product” (MVP)? What is the absolute bare minimum needed to launch?
3. Stakeholders & Roles (“Who”)
Who is the Project Sponsor? Who is championing the project and ultimately accountable?
Who has final sign-off authority? Identify the key decision-makers to avoid bottlenecks.
Who is the target audience/end-user? Who is this being built for?
Do we have the right skills on the team? Assess the need for external resources or specialized training.
4. Constraints & Logistics (“When” & “Where”)
Is the deadline fixed or flexible? Are there immovable external dates (e.g., conferences, legal compliance)?
What is the rough budget? Have all funds been secured?
What are the key milestones? Identify early dependencies.
5. Risks & Dependencies
What are the major threats? Identify risks to the schedule, budget, or quality early.
What dependencies exist? What outside factors (e.g., vendor delivery, legal approval) must happen first?
6. Operating Model (“How”)
How will the team communicate? Define tools (e.g., Slack, email) and meeting cadence (e.g., weekly, daily standups).
How will we track progress? Where will documentation and tasks be stored (e.g., Jira, Asana)?
Summary Checklist for Pre-Kickoff Success
Business Case Approved: Does a charter exist?
Goals Aligned: Do stakeholders agree on what success looks like?
Constraints Known: Deadline and budget are understood.
Risks Documented: A preliminary risk list is started.
Dependencies Identified: Known bottlenecks are mapped.
Team Identified: Key players are assigned.
Tip: Before the main kickoff, hold one-on-one “sanity check” conversations with key stakeholders to identify unspoken concerns.
Data Engineering SummaryData Engineering : Step by Step Summary
Extract, Transform, Load (ETL) is a foundational data integration process that consolidates raw data from multiple disparate sources—such as CRM systems, databases, and APIs—into a single, centralized destination, typically a data warehouse or data lake. It is crucial for ensuring that data is clean, consistent, and ready for analytics, BI reporting, and machine learning.
Core ETL Process Steps
Extract: Raw data is pulled from varied sources (structured or unstructured) into an intermediate staging area.
Transform: The staged data is cleaned, formatted, and combined based on business rules to ensure consistency.
Load: The prepared data is moved from the staging area into the final target data warehouse.
Key Benefits
Data Quality & Consistency: Standardizes formats (e.g., date formats, currency) and cleans up errors.
Historical Context: Combines legacy data with new information for long-term analysis.
Automation: Automates recurring data processing tasks, saving time for data engineers.
ETL vs. ELT
ETL (Transform before Loading): Transforms data on a separate processing server before loading, ideal for complex, heavy transformations.
ELT (Load then Transform): Loads raw data directly into the target warehouse (e.g., Snowflake, BigQuery) and transforms it using the warehouse’s power. This is better for large, unstructured datasets.
Detailed Summary
1. Extract
Extraction is the first phase, where raw data is gathered from various heterogeneous sources.
Full Extraction: The entire source is copied; best for small tables.
Incremental Extraction: Only data modified since the last run is extracted.
Update Notification: Source system alerts the ETL tool of a change.
Staging Area: Extracted data is temporarily stored in a “staging area” (or landing zone) to avoid placing heavy loads on production systems during transformation.
2. Transform
This is the most compute-intensive phase, where raw data is converted into a usable format.
Cleansing: Mapping NULL values to 0, removing duplicates, and fixing errors.
Standardization: Converting character sets, date/time formats, or measurement units (e.g., kilograms to pounds).
Data Aggregation: Summarizing data (e.g., total sales per store per day).
Enrichment/Derivation: Creating new calculated values (e.g., calculating profit from revenue and cost).
Encryption/Masking: Anonymizing PII (Personally Identifiable Information) to comply with GDPR/HIPAA regulations.
3. Load
The final phase transfers the cleaned and transformed data into the target destination.
Target Systems: Data warehouses (e.g., Amazon Redshift, Snowflake, Google BigQuery) or Data Lakes.
Loading Methods:
Full Load: Wiping and replacing all data in the target.
Incremental Load: Only loading new/updated data (the “delta”) to the target at regular intervals.
Automation: The process is typically automated to run during off-hours, ensuring the data is ready for morning reports.
Modern Trends and Tools
Cloud-Native ETL: Tools like AWS Glue, Azure Data Factory, and Google Cloud Dataflow allow for serverless, scalable data integration.
Reverse ETL: Moving transformed data from the warehouse back to operational systems (like Salesforce) to activate insights.
Streaming ETL: Processing data in real-time as it arrives, rather than waiting for batch updates, using tools like Apache Kafka.
DataOps: Applying DevOps principles (automation, testing) to data pipelines to ensure reliability and faster deployment.
When to Choose ETL vs. ELT
Choose ETL when: You need to comply with strict data security, perform complex transformations before data hits the warehouse, or have limited computing power in your target database.
Choose ELT when: You are using a cloud warehouse, dealing with massive unstructured data volume, or need high-speed ingestion.
The Campus Serge Kampf Les Fontaines, located in Gouvieux-Chantilly near Paris, is a premier corporate seminar and training center owned by Capgemini. Originally a 19th-century Rothschild estate, it was transformed into a “Campus” for learning, innovation, and reflection, blending historic architecture with modern, sustainable meeting facilities.
Campus Serge Kampf Les Fontaines, in Gouvieux-Chantilly near Paris
Detailed History Timeline
18th Century: Romantic Origins
Late 18th Century: Jacques Berthault acquired a 28-hectare plot, developing a romantic-style garden around a lake, featuring small “follies” (decorative buildings).
19th Century: The Rothschild Era
1878: Baron Nathan James Edouard de Rothschild purchased the estate, increasing it to 52 hectares.
1879–1882: Construction of the Château des Fontaines took place, designed by architect Félix Langlais in an eclectic mix of styles (medieval, 17th-century, Louis XIV). It served as a summer residence and venue for lavish receptions.
20th Century: War and the Jesuits
1931: Baroness Thérèse von Rothschild died, after which the property was passed to her son, Henri.
World War II (1939–1945): Occupied by the German army; utilized by the Luftwaffe as an observation base with a hidden bunker.
1946: The Jesuits acquired the estate to create a cultural and spiritual center, including a vast private library.
1970: The facility was formally established as the Centre Culturel des Fontaines.
Late 20th Century: Acquisition by Capgemini
1997: Facing high maintenance costs, the Jesuits decided to sell the property.
1998: Capgemini bought the estate to create a dedicated international training and seminar campus.
1999–2002: Major redevelopment took place under architects Valode & Pistre to create the campus facilities.
21st Century: The Campus Serge Kampf Les Fontaines
2003–Present: The campus hosts around 275 events annually, serving as a hub for Capgemini University, international meetings, and corporate training.
November 2017: Renamed to “Campus Serge Kampf Les Fontaines” to honor the recently deceased founder of Capgemini.
2020: The lounges of the Château were fully refurbished.
Key Features and Role
Architecture: Combines the historic 19th-century Rothschild château with the “Forum,” a modern, circular 300-room campus building.
Sustainability: Focused on environmental responsibility with a strong commitment to reducing the carbon footprint of events for over 20 years.
Capacity: 50 meeting rooms, including a 500-seat auditorium.
About Serge Kampf
Serge Kampf (1934–2016) was a French entrepreneur who founded Sogeti in 1967, which became Capgemini. He was known for his dedication to client relationships and nurturing entrepreneurial talent.
Campus Serge Kampf Les Fontaines, in Gouvieux-Chantilly near Paris
Capgemini – Campus – Serge Kampf Les Fontaines, Chantilly, France – Advanced EM Course – November 2017 Class
Degree 53 is a Manchester-based digital agency specializing in user experience (UX), design, and software development, primarily for the online gambling and sports betting industries.
Founded by Andrew Daniels in 2013, the agency has built a reputation for developing high-stakes transactional mobile apps and websites for major operators like Betfred and Scientific Games.
Following its acquisition by Bally’s Corporation in 2021, it now serves as the Sports Product Studio for Bally’s Interactive, focusing on North American gaming products.
Comprehensive Evaluation Timeline
2013: Founding and Launch
Andrew Daniels, a former Betfred employee, founded Degree 53 Limited on May 21, 2013, with initial backing from Betfred founder Fred Done.
The agency initially established its office at The Sharp Project in Manchester.
2015: Regulatory Milestone
In April 2015, the agency secured a Remote Gambling Software license from the UK Gambling Commission, a rare credential for a digital agency that allowed them to build bespoke transactional gambling platforms.
2016 – 2017: Rapid Expansion
In 2017, the agency moved to a new HQ in Steam Packet House, Manchester, after recruiting over 30 new staff members, bringing its total headcount to 75.
The firm diversified its portfolio during this period, developing products for non-gambling clients like Vibe Tickets.
2020: Sharp Gaming Spin-Off
Founder Andrew Daniels launched Sharp Gaming, a B2B gambling technology business, with £25 million in investment from Fred Done.
While Sharp Gaming focused on full-stack platform services, Degree 53 continued its focus on UX and front-end development under new Managing Director Richard Wagstaff.
The team of 54 experts was integrated into Bally’s Interactive but remained based in their Manchester studio.
2024 – 2026: Consolidation and Leadership Changes
The agency remains an active subsidiary of Bally’s. Recent regulatory filings indicate leadership transitions, such as the appointment of Raja B-Sheikh as a director in August 2025.
Summary of Key Services
Bespoke Development: Building native mobile applications (iOS, Android) and responsive web platforms.
UX/UI Specialization: User-centered design approach, including mapping customer journeys and conducting user testing.
Industry Expertise: Complex system integrations, data feed management, and API development specifically for the betting, gaming, and lottery sectors.
Key Areas Summarised
Core Focus: High-quality digital solutions for complex, regulated industries.
Key Services: UX/UI Design, Native iOS & Android Apps, Web Development, API Integrations, and Digital Strategy.
Strengths: Strong focus on user journey and engagement, particularly in betting platforms. They are noted for bringing high-quality digital solutions at competitive prices.
Impact: A significant player in the Manchester digital scene, moving to larger premises to accommodate growth from 50 to 75+ staff between 2014 and 2017.
Acquisition: In 2021, Degree 53 became the Sports Product Studio for Bally’s Interactive, supporting its North American expansion.
Key Clients and Projects
Betfred/Totesport: Mobile betting apps and websites.
Bally’s Interactive: Currently developing sports products.
Vibe Tickets: Developed a secure ticket-selling app.
Sofology: ‘My Account’ functionality.
Other projects: Ready for School, Football Acca, Horse Tracker.
Degree 53 Logo
Key Company Facts
Acquisition: Acquired by Bally’s Corporation in October 2021 to advance its global sportsbook and mobile platforms.
Specialties: Mobile app development, UX/UI design, Bespoke .NET development, and API integrations.
Major Clients: Historically has worked with Betfred, Scientific Games, and Gamesys brands like Rainbow Riches.
Office Location: They are currently based at 60 Spring Gardens in Manchester city centre. Previous locations included Steam Packet House and The Sharp Project.
Mark Whitfield involvement 2014 – 2015 :
In late 2014, I joined Betfred as a Senior IT Project Manager in the Gambling and Casinos industry delivering multiple projects for both Betfred online and mobile (iOS, Android and Windows) using the Agile SCRUM framework. Project deliveries covered payment gateways and methods, sportsbook for football and horse racing amongst others and the online virtual (computer generated) gaming components.
As a major part of this allocation, I also linked into Degree 53 for project/ app status and aid in the setting of priorities for their Betfred specific software delivery.
at Degree 53 Manchester office, 2015
Projects varied in size and cost and extended over multiple phases requiring the management of many software suppliers, each delivering different aspects of the solution from fraud detection, frontend, middleware, payment services and mobile apps.
Agile Scrum is a widely adopted, iterative, and incremental framework designed to manage complex product development and software projects.
It breaks down large, daunting projects into small, manageable units called sprints—fixed-length iterations typically lasting 1–4 weeks—to deliver functional components faster and adapt to changing requirements.
Detailed Summary of the Scrum Framework
Scrum relies on three pillars—transparency, inspection, and adaptation—and is defined by specific roles, events, and artifacts.
1. The Scrum Team (Roles)
Product Owner (PO): Maximizes the value of the product by managing the Product Backlog. They define “what” is built.
Scrum Master: A servant-leader who helps the team follow Scrum theory and removes impediments.
Developers: The cross-functional team members responsible for creating the increment each sprint.
2. Scrum Events (Ceremonies)
Sprint Planning: Defines the Sprint Goal and the work to be done during the sprint.
Daily Scrum: A 15-minute daily meeting for developers to synchronize activities and plan the next 24 hours.
Sprint Review: Held at the end of the sprint to showcase the increment to stakeholders and gather feedback.
Sprint Retrospective: The team reflects on the process and identifies improvements for the next sprint.
3. Scrum Artifacts
Product Backlog: An ordered list of everything required in the product.
Sprint Backlog: The set of Product Backlog items selected for the sprint, plus the plan for delivering them.
Increment: The usable, working product increment produced at the end of a sprint.
Evolution of Scrum Over the Years
Scrum was developed in the early 1990s as a response to the failures of the linear “waterfall” approach.
1986 (Concept Origins): Takeuchi and Nonaka publish “The New New Product Development Game,” comparing traditional relay-race product development to a rugby “scrum” team.
1993 (First Implementation): Jeff Sutherland, John Scumniotales, and Jeff McKenna implement the first Scrum team at Easel Corporation.
1995 (Public Introduction): Ken Schwaber and Jeff Sutherland formalize Scrum and present “The Scrum Development Process” at the OOPSLA ’95 conference.
2001 (Agile Manifesto): Sutherland and Schwaber become signatories of the Agile Manifesto, cementing Scrum as a major Agile methodology.
2010 (The Scrum Guide): The first official Scrum Guide is released to standardize the framework worldwide.
2011–2017 (Refinements): The guide is updated to clarify roles and events, including strengthening the role of the Scrum Master and introducing self-organizing teams.
2020 (The Modern Scrum Guide): A major update makes the guide less prescriptive, focusing on a single Scrum Team (removing “development team” and “scrum team” split), introducing the Product Goal for long-term focus, and focusing on one team working towards one product.
CrestCo Ltd, now operating as Euroclear UK & International (EUI), is the central securities depository (CSD) for the United Kingdom and Ireland, responsible for the electronic settlement of securities transactions.
Founded in the mid-1990s, CrestCo revolutionized London’s financial markets by moving them from paper-based share certificates to a “dematerialised” (electronic) system, thereby significantly reducing settlement times, risks, and costs.
Purpose: The CREST system (Certificateless Registry for Electronic Share Transfer) enables electronic, real-time settlement of securities.
Services: It handles settlement of UK and Irish equities, gilts (government bonds), and various other corporate securities.
Key Functions:
Dematerialisation: Eliminating the need for physical share certificates.
Real-time Settlement: Reducing operational and credit risk.
Corporate Actions: Managing dividend payments and other corporate events.
CDIs: Utilizing CREST Depositary Interests (CDIs) to facilitate trading of international securities.
Transformation: In 2002, CrestCo was acquired by Euroclear and later renamed Euroclear UK & Ireland Ltd (EUI).
Comprehensive Timeline by Year
1993: The Bank of England initiates the CREST project to replace the aborted TAURUS system (Transfer and Automated Registration of Uncertified Stock), aiming to digitize London’s settlement.
1996:CrestCo Ltd is officially founded and the CREST system goes live, beginning the shift from paper-based settlements to electronic transfers.
1997-1998: Rapid adoption of the system by market participants, facilitating faster settlement cycles.
1999: Introduction of automated “settlement discipline” regimes, including league tables and fines to incentivize performance.
2002: Euroclear merges with CrestCo. CrestCo is integrated into the Euroclear group, marking its transformation into a larger, internationally integrated entity.
2010 (September 1): EUI merges with EMX Company Limited, enhancing its ability to handle investment funds and expanding its network.
2016: CISI reports that CREST has successfully provided 20 years of secure, efficient settlement, solidifying its role in UK financial infrastructure.
2020s: Continued enhancement of the system, including improved digital security and adaptation to evolving European Union and UK regulatory standards.
2024: Continued operation as a premier infrastructure provider under Euroclear.
2026 (April): Euroclear UK & International Ltd continues to operate as the leading CSD in London, with ongoing focus on digital asset security and efficient settlement.
Key Impacts on London Financial Markets
Risk Reduction: Shifted settlement risk from days to near real-time.
Efficiency: Drastically reduced manual processing (“mundane practices”) and associated costs.
Integration: Facilitated the integration of UK markets into the broader European infrastructure.
Artificial Intelligence (AI) is the branch of computer science dedicated to creating systems capable of performing tasks that typically require human intelligence, such as reasoning, learning, problem-solving, and perception. As of 2026, AI has transitioned from experimental research to widespread deployment as foundational infrastructure, with focus shifting from mere generative models to agentic, autonomous systems capable of executing complex, multi-step workflows.
Detailed Overview of AI in 2026
Core Capabilities: Modern AI combines large language models (LLMs), multimodal understanding (text, image, audio), and autonomous agents that can plan, remember, and act independently.
Agentic AI: A significant shift is the proliferation of AI agents that act as “digital coworkers” rather than just tools, handling tasks within business environments.
Democratization & Open Source: The open-source movement has accelerated, placing powerful AI capabilities in the hands of many, reducing dependence on single providers.
Regulation and Ethics: Following frameworks like the EU AI Act, 2026 is marked by the implementation of laws focusing on safety, transparency, and accountability, including AI watermarking to curb misinformation.
Major Trends: Key trends include standardized AI performance benchmarks (e.g., Machine Intelligence Quotient), interoperability between different AI agents, and integration of AI into physical robotics.
2016:DeepMind’s AlphaGo defeats Lee Sedol, mastering the complex game of Go.
2017: Google researchers introduce Transformers, the architecture underpinning modern LLMs.
V. Generative AI and Agentic Era (2020s–2026)
2020: OpenAI releases GPT-3, demonstrating unprecedented language generation capabilities.
2022: The public release of ChatGPT marks the mainstream breakthrough of Generative AI.
2024:OpenAI releases o1 (formerly Strawberry), focusing on advanced reasoning.
2025–2026: AI becomes “Agentic,” shifting from chatbots that create content to autonomous agents that plan, execute, and interact across software systems.
Mark Whitfield is a highly experienced, SC-cleared Senior Project Manager and Engagement Manager specializing in complex IT software development lifecycle (SDLC) projects, digital transformation, and cloud migrations.
Currently based in Greater Manchester, UK, he has over 31 years of experience in the IT industry, working with major blue-chip companies across various sectors, including UK Government, retail banking, aerospace, and utilities.
He is a certified PRINCE2 Practitioner, skilled in both Agile SCRUM and Waterfall methodologies.
Mark specializes in bridging technical teams and business stakeholders, delivering complex IT systems under challenging conditions.
His career spans from early roles as a developer on Tandem Mainframe Computers (HPE NonStop) to senior management positions focusing on cloud resources, API integrations, and CRM platform implementations.
Key Strengths: Cloud Migration (Azure/Dynamics 365), Payment Systems (ATM/POS), and API-led connectivity.
Detailed Career Timeline:
Nov 2023 – Feb 2024 (UK Government – Capgemini): Acted as Client-Side Technical Delivery Manager for a £1m+ Fish Export Service (FES) to CHIP project, facilitating Azure-based API updates for UK-Northern Ireland trade.
Nov 2022 (UK Government – Capgemini): Managed two Microsoft Dynamics 365 Azure Cloud projects, including a £0.4m Dynamics 2016 migration and a £0.54m CRM platform discovery/build.
Feb 2022 (UK Utility Industry – Capgemini): Managed a £0.5M project migrating legacy document management systems to an Azure-based Enablon product.
2020 (UK Gov – Capgemini): Senior PM for a £375k Agile proof-of-concept (POC) project migrating legacy applications (MS Access/Oracle) to Microsoft Azure and Dynamics 365.
Oct 2018 – June 2019 (MuleSoft): Served as Delivery Manager overseeing 5+ UK accounts for MuleSoft Anypoint Platform (API-led connectivity) implementations.
Oct 2017 (Automotive Industry – Capgemini): Managed a £430k Digital Readiness project and a £670k Customer Portal/Online Sales project (Agile).
May 2017 (Local Govt – Capgemini): Led a £400k telecommunications project (CCaaS) for the Support for Mortgage Interest (SMI) program.
Jan 2017 (Aerospace/Def – Capgemini): Senior Project Lead for two £1.3M projects with high-governance and gated deliverables.
Jan 2016 – Present (Capgemini UK): Joined as an Engagement Manager (A8), working on projects including Apple iOS app development for UK Air Traffic (NATS) and a £4.3M data center migration for Postal Services.
Dec 2014 – Jan 2016 (Betfred Limited): IT Senior Digital Project Manager for online/mobile payment gateways and sports book platforms.
Sep 2013 – Dec 2014 (Wincor Nixdorf): Senior Project Manager for a £5+ million ATM/POS software swap-out at a UK retail bank.
2013 (Retail Banking – Riyadh): Delivered an RTLX transaction tracking project (BASE24 Classic) at a Saudi Arabian bank.
1995 – 2013 (Insider Technologies): Worked on Strategic Technical Initiatives and bank-facing projects on the HPE NonStop platform (Tandem) for products Reflex 80:20, Reflex ONE24, RTLX and XPERT24.
1990 – 1995 (The Software Partnership/Deluxe Data): Commenced career as a programmer specializing in electronic banking software on Tandem Computers (HPE NonStop), sp/ARCHITECT-BANK
Education:
1988 – 1990: Higher National Diploma (HND) in Computing, Distinction/Overall First, Bolton Institute of Higher Education (now University of Greater Manchester from 2024).
Mark Whitfield, SC Cleared Senior Project Manager, Manchester
Project management deliverables are the tangible or intangible outputs—products, services, or documents—produced as a result of project activities. They are specific, measurable, and agreed upon by stakeholders to demonstrate progress toward project goals.
Overview of Project Deliverables
Deliverables are essential for breaking down project goals into manageable components, tracking progress, and ensuring stakeholder alignment.
Types of Deliverables:
Internal Deliverables: Created for internal use, such as team charters, project plans, and risk logs.
External Deliverables: Client-facing, such as a finished software product, marketing campaign, or project report.
Process Deliverables: Interim outputs that mark progress, such as prototypes, wireframes, or testing reports.
Product Deliverables: The final, completed goods or services delivered.
Tangible vs. Intangible: Physical/digital items (e.g., machinery) vs. conceptual outcomes (e.g., a new training program).
The project lifecycle defines the stages a project goes through from start to finish. Textual and documentation deliverables are key to managing and controlling these stages.
1. Initiation Phase (Initiating)
Goal: Define the project at a high level and obtain authorization.
Key Deliverables:
Business Case: Why the project is needed.
Feasibility Study: Whether the project is achievable.
Project Charter: A formal document outlining objectives, scope, and key stakeholders.
2. Planning Phase (Planning)
Goal: Develop a roadmap for project execution and define constraints.
Key Deliverables:
Project Management Plan: A comprehensive document (roadmap) detailing tasks, timelines, and resources.
Scope Statement/WBS: Defines boundaries and breaks down work.
Communication Plan: Strategy for stakeholder communication.
Risk Register: Identifies potential threats and mitigation strategies.
3. Execution Phase (Executing)
Goal: Carry out the work defined in the plan to produce deliverables.
Microsoft Project has evolved from a DOS-based scheduling tool in 1984 into a comprehensive project portfolio management (PPM) system and, as of 2024–2026, a cloud-native platform integrating with Microsoft 365 and Planner.
Example MS Template from download bundle
Historical Timeline by Era
1. The DOS Era: Foundations (1984–1989)
1984: Initial release for DOS by a third party, later acquired by Microsoft. Focused on basic Gantt charts and critical path method (CPM).
1985: Microsoft purchases rights; releases Project 2.0.
1986: Project 3.0/4.0 for DOS released.
2. The Windows & Early Office Era: GUI & Integration (1990–1999)
1990: First Microsoft Project for Windows released.
1991: First Macintosh version released.
1993: Project 4.0 for Mac (final Mac version).
1995: Project 95 (v4.1) released: The first 32-bit version, designed to match the Windows 95 interface.
1997/1998: Project 98: Deepened integration with Microsoft Office and introduced improved tracking.
3. The Enterprise & Collaboration Era: Server Integration (2000–2010)
2000: Introduced “Microsoft Project Central” for team collaboration, allowing web-based status reporting.
2002/2003: Released with Server components, allowing enterprise-level resource management.
2007: Introduced Office Fluent Ribbon interface and enhanced reporting capabilities.
2010: Significant update adding the Timeline View (top-down view) and manual scheduling options.
4. The Cloud & Subscription Era: PPM & Modernization (2013–2023)
2013: Launch of Project Online (PPM) to provide full cloud capabilities.
2016/2019: Introduced Resource Engagements and improved visual reporting.
2019/2020: Release of “Project for the web,” a completely new platform based on the Power Platform (Dataverse), separate from the legacy Desktop Client.
5. The Future Era: Unified Planner & Web (2024–2026)
2024: Deepened integration with Microsoft Teams, OneDrive, and SharePoint.
2026: Project Online is scheduled to be discontinued in September 2026.
2026/Future: “Project for the web” is being rebranded and merged into Microsoft Planner.
Detailed Breakdown of Key Features
Scheduling & Gantt Charts: Core functionality for mapping dependencies, critical paths, and durations.
Resource Management: Tools to allocate resources, manage costs, and track workloads, evolving from desktop-based to enterprise-wide resource leveling.
Timeline View: Introduced in 2010, this feature allows creating a “big picture” summary of key tasks and milestones, ideal for stakeholder reporting, customizable by adding tasks directly from the Gantt chart.
Collaboration: Shifted from email-based sharing to Microsoft 365, Teams, and Sharepoint integration.
Project Versions: Available as Standard (desktop), Professional (collaboration features), and cloud-based subscription plans (Plan 1/3/5).
Summary of Major Version Transitions
DOS (1984) ………. Windows (1990) ……….(32-Bit (1995) ………. Server (2000) ………. Online (2013) ……….. Web/Dataverse (2019) ……… Planner (2026).
Microsoft Project Extensions :
Microsoft Project primarily uses .mpp for project plans and .mpt for templates, with specialized extensions like .vsdx for timeline visuals. These files are used to manage project schedules, resources, and budgets, with support for add-ins that integrate with Microsoft Teams, Power BI, and other Office applications.
Core Microsoft Project Extensions
.mpp: The native file format for Microsoft Project, containing all project data, including schedules, tasks, resources, and budgets.
.mpt: Microsoft Project Template files, used to create new projects with predefined structures, settings, and views.
.vsdx: Used to create and save custom timelines, which can be imported into or exported from Project.
File Compatibility & Viewers
Because .mpp files require a Microsoft Project license, alternative tools are used to view them without the desktop application:
Project Plan 365: A widely used viewer and editor compatible with MPP files from 2010 to 2026.
Gantt Pro: An online tool for viewing and sharing MPP file schedules.
Project Viewer 365: A Microsoft Store app designed to open and print .mpp files.
Add-ins and Integrations
Extensions for Microsoft Project can be found via the Office Add-ins store, improving productivity and integration:
Power BI: Creates interactive dashboards from Project data.
Microsoft Teams: Allows teams to collaborate on project plans.
Office Add-ins: Available for various versions of Project Professional and Standard to enhance functionality.
Microsoft Project Timeline by Era, Features and Extensions
The HPE NonStop community, historically rooted in Tandem Computers’ culture of openness, has held an annual gathering since the early 1980s.
Originally known as the International Tandem Users Group (ITUG) summits, the main conference evolved into the NonStop Technical Boot Camp (TBC), now organized by Connect Worldwide and heavily supported by Hewlett Packard Enterprise.
The conference serves as the premier annual gathering for NonStop users, focusing on technical education, mission-critical applications, and networking.
Detailed Historical Timeline (1990–2026)
The “Tandem/ITUG” Era (1990–1996)
Focus: Transitioning from proprietary stack machines to MIPS RISC microprocessors, introducing Open System Services (OSS).
1990: Tandem reaches peak revenue; ITUG meetings focus on fault tolerance in ATM networks.
1993: Introduction of NonStop Himalaya K-series using MIPS R4400 processors.
1994: NonStop Kernel (NSK) extended with POSIX-compliant Unix.
1995: Introduction of ServerNet, foundational for future x86 architectures.
The Compaq & HP Transition Era (1997–2014)
Focus: Integration into larger portfolios, migration from MIPS to Intel Itanium (TNS/E).
1997: Compaq acquires Tandem. ITUG summits begin navigating the new corporate structure.
2003: HP acquires Compaq. NonStop conferences become key components of HP’s high-end mission-critical offerings.
2008: Connect Worldwide (independent user group) takes over, revitalizing the “Technical Boot Camp” name.
The HPE NonStop X & Virtualization Era (2015–2019)
Focus: Migration to x86-64 (NonStop X), Virtualization (vNonStop), and cloud integration.
2015: Formation of Hewlett Packard Enterprise (HPE). Focus shifts to modernized “NonStop X” systems.
2016: vNonStop demoed at TBC, allowing fault-tolerant systems in virtual machines.
2017: TBC highlights AI and cybersecurity, reflecting modern enterprise needs.
2019: Discussions around “NonStop-as-a-Service” (XaaS) and GreenLake integration.
The AI & 50th Anniversary Era (2020–2026)
Focus: Hybrid Cloud, Artificial Intelligence, 50th Anniversary of NonStop.
2020: TBC goes virtual, with high attendance from a global community.
2022: Continued focus on XaaS (everything as a service).
2023-2024: Emphasis on cyber resilience, SQL improvements, and integration with modern DevOps tools.
2025/2026:HPE NonStop 50th Anniversary. Conferences focus on AI-driven transformation, cybersecurity, and the new business track.
Conference Insights and Evolution
The “Beer Bust”: A tradition started in the early days of Tandem, now a staple social event at the TBC to foster community and open communication.
Format: The NonStop TBC typically features 4 days of technical sessions, user case studies, and partner exhibitions (e.g., XYPRO, NTI).
Regional Events: Alongside the main TBC, regional events (e.g., MexTUG) occur throughout the year.
Key Themes: Uninterrupted performance, database integrity, and migration to x86/cloud.
NonStop TBC 2026 is scheduled for Sept 14–18 in Orlando, FL.
The history of Tandem Computers (now HPE NonStop) conferences is a nearly 50-year chronicle of community-driven knowledge sharing, evolving from the Tandem User’s Group (TUG) in 1978 to the modern HPE NonStop Technology & Business Conference (TBC).
These events have served as the primary venue for sharing best practices on fault tolerance, high availability, and mission-critical application design, bridging the gap between Tandem’s founding in 1974 and HPE’s current virtualized NonStop systems.
1974: Jimmy Treybig founds Tandem Computers in Cupertino, CA, with a mission to create fault-tolerant systems for online transaction processing (OLTP).
1976: First Tandem/16 (T/16) system shipped to Citibank, initiating the NonStop era.
1978:Creation of the Tandem User’s Group (TUG) in San Jose, CA, as the foundational user community. Introduction of the Encompass database management system.
1980–1989: Growth and Expansion
1981: TUG is renamed the International Tandem User’s Group (ITUG), reflecting global growth. Introduction of NonStop II.
1983: Introduction of the Tandem NonStop Extended Processor (TXP) and Guardian B-Series OS.
1984: Formation of the British Isles Tandem User Group (BITUG).
1985–1986: Introduction of the entry-level NonStop EXT system.
1987-1988: Large-scale adoption of Tandem systems by international financial institutions and growing ITUG conference attendance, often characterized by strong community spirit.
1989: Release of NonStop Cyclone and relational database software, challenging IBM’s dominance in transaction processing.
1990–1999: The Move to Open Systems & Acquisition
1990: Announcement of the Integrity S2 line for Unix-based fault tolerance.
1991: Release of Cyclone/R (CLX/R) based on MIPS R3000, signaling a move away from custom proprietary CPUs.
1993: Launch of the Himalaya K-series, supporting the MIPS R4400 and native mode NSK.
1994-1995: Introduction of Open System Services (OSS), extending the NonStop Kernel to include a Unix-like POSIX environment.
1997:Compaq acquires Tandem for $3 billion. Tandem releases the NonStop Himalaya S-Series, introducing the ServerNet interconnect technology.
2000–2010: Compaq-HP Merger and Modernization
2001: Hewlett-Packard merges with Compaq, taking over the NonStop product line and initiating a migration to Intel Itanium processors (TNS/E).
2001: ITUG is renamed to “Compaq Users Group” before transitioning to the combined Connect community group.
2002: Formation of a Tandem Alumni Group, celebrating the unique culture.
Legacy + Future: Current TBC conferences balance supporting existing high-value transaction applications with modernization approaches like REST APIs, Java, and DevOps.
Virtualization & Cloud: A major focus is deploying NonStop as virtualized instances (vNS) and integrating with public/hybrid clouds.
Community Continuity: Despite multiple mergers (Tandem HPE), the user community has remained tight-knit, with organizations like Connect hosting the NonStop TBC.
Continuous Availability: The core focus remains 100% uptime, with sessions analyzing how to achieve it in modern containerized environments.
WordPress has evolved from a niche blogging tool in 2003 into the dominant Content Management System (CMS), powering over 43% of all websites on the internet as of 2026. Its history is defined by consistent innovation, transitioning from simple blogging to a block-based full-site editing platform. This https://mark-whitfield.com website is WordPress.
This personal website has been built using WordPress
✨ The Eras of WordPress Evolution
2003–2004: The Birth (Fork of b2/cafelog): Started as a solution for a stalled project by Matt Mullenweg and Mike Little, focusing on typography and ease of use.
2005–2010: The Plugin & Theme Era: The introduction of plugins (1.2), themes (1.5), and the dashboard (2.0) turned it into a flexible platform rather than just a blog.
2011–2017: The CMS & Mobile Era: Focus on custom post types, multisite capabilities, responsive admin interfaces, and the REST API made it a true CMS.
2018–Present: The Gutenberg/Block Era: The shift from a classic editor to the block editor (Gutenberg) in version 5.0 (2018) revolutionized content creation toward “what you see is what you get” (WYSIWYG) site building.
📜 Detailed Historical Timeline by Era and Year
Phase 1: Foundations and Early Growth (2003–2007)
2003:WordPress 0.70 (May 27) is released, a fork of b2/cafelog.
2004:WordPress 1.0 (Davis) is released (Jan), adding search-engine-friendly permalinks. WordPress 1.2 (Mingus) (May) introduces the plugin architecture, enabling developers to extend functionality without modifying the core.
2005:WordPress 1.5 (Strayhorn) debuts the Theme system and static Pages. Version 2.0 (Duke) launches the first modern dashboard, image uploading, and faster editing.
2006: First WordCamp is organized. WordPress receives its official logo.
2007:Version 2.1 (Ella) introduces auto-save, spell check, and a cleaner UI. Version 2.3 (Dexter) adds native tagging support.
Phase 2: Expanding to a CMS (2008–2014)
2008:Version 2.5 (Brecker) launches a major dashboard redesign. Version 2.7 (Coltrane) streamlines the admin interface and adds automatic updates.
2009:Version 2.9 (Carmen) adds built-in image editing (crop/rotate) and global undo (trash functionality).
2010:Version 3.0 (Thelonious) is a landmark release, merging WordPress MU (Multisite) with the core, introducing Custom Post Types, and the first “Twenty Ten” default theme.
2011:Version 3.1 (Reinhardt) adds the Admin Bar and Post Formats. Version 3.3 (Sonny) focuses on tablet usability and drag-and-drop media uploads.
2012:Version 3.4 (Green) improves theme customization. Version 3.5 (Elvin) launches a simplified media manager.
2013:Version 3.7 (Basie) introduces automatic background updates for security. Version 3.8 (Parker) updates the admin design to be fully responsive.
2014:Version 4.0 (Benny) improves media management with grid views and better embed handling.
Phase 3: The Block Editor & Full Site Editing (2015–Present)
2015–2016:Versions 4.2–4.7 focus on Emoji support, the REST API (crucial for headless WordPress), and Custom CSS in the Live Preview.
2017:Version 4.9 (Tipton) introduces major improvements to the Customizer, including scheduling and draft capabilities.
2018:Version 5.0 (Bebo) launches, introducing the Gutenberg Block Editor as the default editor, replacing the TinyMCE classic editor.
2019–2020:Versions 5.1–5.6 polish the block editor. Version 5.5 adds lazy-loading images and native XML sitemaps.
2021:Version 5.8 (Tatum) introduces Block Widgets and the Template Editor, marking the beginning of Full Site Editing (FSE).
2022:Version 5.9 (Joséphine) debuts Twenty Twenty-Two, the first default block theme, allowing users to edit site-wide templates. Version 6.0 (Arturo) enhances styling and block-locking capabilities.
2023:Version 6.2 (Dolphy) brings the Site Editor out of beta and introduces a distraction-free mode. Version 6.4 introduces the Twenty Twenty-Four theme, designed to be highly versatile.
2024:Version 6.5 (Regina) adds a native Font Library and enhanced data views. Version 6.6/6.7 focus on performance, block binding APIs, and zoom-out previews.
2025–2026 (Projections/Recent): Continued emphasis on AI integration, faster page loads (averaging 3.4s, which is a key competitive challenge), and deeper WooCommerce integration.
📊 Key Insight Metrics (2026)
Web Usage: ~43.5% of all websites.
CMS Market Share: ~62.8% of the CMS market (9x the closest competitor, Shopify).
WooCommerce: Powers over 33% of all online stores.
Gutenberg Adoption: ~72% of WordPress sites use the Gutenberg block editor.
The platform continues to grow, with roughly 660 new WordPress sites created daily.
WordPress Overview and Detailed Timeline by Era and Year
Libra is the seventh star sign of the zodiac, governing the period from approximately September 23 to October 22. As a cardinal air sign ruled by Venus, Libra is symbolized by the Scales, representing a deep commitment to balance, justice, and harmony.
7th Star Sign of the Zodiac, governing period from approximately Sept 23 to Oct 22
Full Insight: Personality and Traits
Core Characteristics: Libra is cooperative, diplomatic, gracious, and fair-minded, with a strong preference for partnership.
The “Scales” Energy: They are driven by a need for equilibrium in all aspects of life, particularly in relationships. They are the only sign represented by an inanimate object.
Strengths: Highly social, intellectual, charming, and adept at mediation.
Weaknesses: Indecisive, prone to avoiding conflict at all costs, and can hold grudges.
Interests: They value beauty, art, fashion, and intellectual conversation.
Detailed Historical Timeline
Ancient Beginnings (Sumerian & Roman Times): The constellation was originally seen by Sumerians as Zib-ba An-na (“balance of heaven”). Roman astronomers developed the sign in the first century BCE, identifying the scales as the ones held by the goddess of justice.
Astronomical Origins: It was previously considered part of Scorpius, which is why the brightest stars, Zubeneschamali and Zubenelgenubi, translate to “northern claw” and “southern claw”.
Medieval Representation: In the 14th-15th centuries, Libra was heavily featured in European manuscripts (e.g., Book of Hours) and utilized in royal courts for horoscope readings.
1995-1997: The North Node was in Libra, bringing a period of focus on creating new partnerships, fairness, and a shift in social structures.
2018–April 2026: Uranus was in Taurus, acting in Libra’s eighth house, bringing significant shifts, sudden changes, and, in some cases, upheavals regarding money, investments, and deep partnerships.
Current Timeline: 2025-2026
October 2024–April 2025: A six-month cycle began with a new moon solar eclipse in Libra (October 2). This cycle forced a re-evaluation of personal identity, relationships, and how Libras “show up” in partnerships.
March 29, 2026: A new moon solar eclipse in Aries begins a new six-month cycle of relationship changes, acting as a “golden buzzer” moment for growth.
April 2, 2026: A Full Moon in Libra occurred, bringing awareness to the balance between personal needs and partnership demands.
End of April 2026: Uranus moves into Gemini, beginning a 7-year journey in Libra’s 9th house, sparking a shift toward expanding horizons, learning, and fresh mental landscapes.
Key 2026 Themes for Libra
Relationship Recalibration: Balancing personal independence with partnership needs is the main focus, influenced by the Aries/Libra eclipse axis.
The “Golden Buzzer” Era: Early April 2026 is a high-frequency, lucky period due to a stellium in Aries (Sun) and Venus in Taurus, promoting major life-changing opportunities.
Shifting Focus: The focus moves from intense financial or deep psychological change (Uranus in 8th) to intellectual and expansive growth (Uranus in 9th).
BASE24 is a foundational electronic payments software suite developed by ACI Worldwide, first launched in 1982 to provide “always-on” (24/7/365) transaction processing, primarily on HP NonStop servers.
It is used by large financial institutions to acquire, authenticate, route, switch, and authorize card- and non-card-based financial transactions across multiple channels, including ATMs, point-of-sale (POS) terminals, and mobile/internet banking.
The product has evolved from “Base24 Classic” into BASE24-eps (formerly BASE24-es), a modern, object-oriented, platform-independent payments engine designed to support high-volume, real-time transaction processing in hybrid or cloud-based environments.
Comprehensive Historical Timeline of BASE24
The Foundation Era (1975–1981): ACI (Applied Communications, Inc.) was founded in Omaha, Nebraska, in 1975, initially developing software for fault-tolerant Tandem NonStop computers. The focus was on connecting the first wave of ATMs to bank systems.
The Launch and Global Expansion (1982–1990):
1982: BASE24 product family is officially launched, serving as the “baseline” software for 24-hour operations.
1986: By 1986, ACI has 131 customers in 14 countries, expanding globally.
1987: ACI receives the U.S. President’s “E” Award for Excellence in Export.
Public Company and Modernization (1995–2000):
1995: ACI becomes a public company.
1997: Adopts the name ACI Worldwide.
1996–2000: Initial expansion of support to platforms beyond Tandem, including IBM mainframes and UNIX, to support rising internet commerce.
The Transition to Open Systems: BASE24-eps (2001–2010):
Early 2000s: Introduction of BASE24-es (later renamed BASE24-eps), a Next-Gen, C++ based engine.
2003: BASE24-eps is live on HP NonStop, IBM zSeries, and IBM pSeries/Sun Solaris.
2006: ACI announces a version of BASE24-es to support UK Faster Payments.
2008–2010: ACI moves toward a unified strategy, with BASE24-eps becoming the mainstream offering while Classic matured.
Modernization and Cloud Era (2011–Present):
2011: BASE24-eps wins the Most Innovative Financial Product Award.
2015: ACI celebrates 40 years of operation and introduces advanced fraud detection (Proactive Risk Manager) integrated with BASE24-eps.
2023: ACI goes live as an early adopter of the Federal Reserve’s FedNow Service, using modernized BASE24-eps technology.
2024–2025: BASE24-eps becomes fully PCI-SSF compliant (PCI 4.0), running on Red Hat Enterprise Linux and supporting hybrid cloud deployments.
Key Features of BASE24-eps
Fault Tolerance: Designed for high availability with near-zero downtime.
Multi-Channel Support: Manages ATM (NCR, Diebold Nixdorf), POS, and Mobile/Web traffic in a single engine.
Scripting Engine: Uses JavaScript-like scripts to allow customers to define authorization logic without modifying the core system.
Universal Connectivity: Supports 40+ global and regional network interfaces (Visa, Mastercard, etc.).
Platform Independence: Runs on HPE NonStop, IBM z/OS (CICS), and Linux/x86_64.
Real-time Fraud Prevention: Integrated with ACI Proactive Risk Manager.
The International Tandem User Group (ITUG) is a non-profit association dedicated to users of the Tandem NonStop computing platform. Now part of the Connect Worldwide community, it facilitates education, networking, and technical exchange between users, vendors, and Hewlett Packard Enterprise (HPE).
ITUG Overview
Purpose: To provide a platform for sharing technical knowledge, advocacy, and strategic information regarding Tandem (now HPE NonStop) systems.
Key Resources: ITUGLIB, an extensive download library containing open-source software, technical white papers, and legacy Guardian tools.
Historical Timeline by Era
1. The Foundational Era (1974–1983)
1974: Tandem Computers is incorporated in California by Jimmy Treybig and a core team of former HP 3000 engineers.
1976: The first Tandem/16 (NonStop I) system ships to Citibank, establishing the fault-tolerant market.
1980: Regional groups begin forming, such as GTUG in Germany, to support the rapidly growing user base.
1981: Introduction of NonStop II, which adds 32-bit addressing capabilities.
2. Growth and Expansion Era (1984–1996)
1984: BITUG is founded in the British Isles, eventually becoming the largest user group outside the USA.
1986: Tandem launches NonStop SQL, the first fault-tolerant SQL database.
1991: The platform migrates from proprietary stack-based processors to MIPS RISC architecture (TNS/R).
1993: Release of the NonStop Himalaya K-series, further expanding scalability.
3. Acquisition and Integration Era (1997–2008)
1997: Compaq acquires Tandem Computers to bolster its enterprise server portfolio.
2002: Hewlett-Packard (HP) acquires Compaq, bringing Tandem “back home” to the company that inspired its founders.
2003: ITUG celebrates its 25th anniversary with participation from original Tandem executives.
2005: ITUG officially merges with other HP user groups (Encompass and HP-Interex) to form Connect, though it often retains the “ITUG” branding for its NonStop-focused division.
4. Modern Era (2009–Present)
2014: The platform completes its transition to Intel x86 architecture, branded as Integrity NonStop X.
2015: Hewlett-Packard splits; Tandem/NonStop becomes a core part of Hewlett Packard Enterprise (HPE).
Present: ITUG continues to operate under Connect Worldwide, hosting major annual events like the NonStop Technical Boot Camp (TBC).
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HP Connect (often referred to as Connect Worldwide) is a leading global IT user community dedicated to professionals using Hewlett Packard Enterprise (HPE) and HP Inc. solutions. It serves as an independent hub for peer-to-peer networking, technical education, and advocacy, primarily supporting users of high-availability systems like NonStop, ProLiant, and HP-UX.
Historical Timeline by Era
The community’s history is defined by the evolution and eventual merger of several legacy user groups representing the giants of the mid-20th-century computing world.
1. The Legacy Foundations (1960s – 1990s)
Before the name “Connect” existed, three distinct user groups served the customers of the companies that would eventually form the modern HP/HPE ecosystem:
DECUS (1961): The Digital Equipment Computer Users’ Society was one of the oldest and largest user groups, supporting DEC systems.
Interex (1974): Founded as the HP 3000 International Users Group, it later expanded to support HP 9000 and HP-UX users.
ITUG (1970s): The International Tandem User Group supported the high-availability Tandem NonStop server community.
2. The Consolidation Era (2000 – 2008)
Major corporate mergers necessitated the union of these independent communities:
2002: HP acquired Compaq, which had already acquired DEC and Tandem.
2004 – 2005: The DECUS community transitioned into Encompass, serving the Enterprise users of the merged entities.
2008:Connect Worldwide was officially launched through the merger of Encompass and ITUG, creating a single, unified global community for HP enterprise users.
3. The Unified “Connect” Era (2008 – 2015)
During this period, Connect Worldwide solidified its role as the primary independent voice for HP enterprise technology:
Global Advocacy: It represented over 50,000 members across 1,000+ member companies worldwide.
Technical Focus: The community focused heavily on HP’s “Converged Infrastructure” and mission-critical systems.
The “Boot Camp”: The NonStop TBC (Technical Boot Camp) became its flagship global event.
4. The Modern Era & Digital Transformation (2015 – Present)
Following the historic 2015 split of Hewlett-Packard into HP Inc. and Hewlett Packard Enterprise (HPE), the community adapted to a dual-focus landscape:
Specialised Sub-Communities: While “Connect” remains the umbrella for legacy enterprise users, newer platforms like the HP Support Community have risen to manage consumer and PC-specific technical needs.
HP Connect (Cloud Service): HP introduced a modern cloud-based tool also named HP Connect, which IT admins use to manage BIOS and security settings for corporate PC fleets via Microsoft Intune.
AI Integration: The latest era (2024+) focuses on the “HP AI Helix,” embedding AI management and security into the user experience.
The European BASE24 User Group (EBUG) was a prominent, community-led organization dedicated to the BASE24 payment processing system. It served as a vital hub for financial institutions and vendors to exchange technical knowledge, discuss platform migrations, and influence the development of ACI Worldwide products.
Group Overview
Primary Purpose: EBUG facilitated networking and technical collaboration among users of the BASE24 ecosystem, including the BASE24 Classic and BASE24-eps platforms.
Evolution of Scope: While it began with a strict focus on BASE24, it eventually expanded to include other ACI products like Postilion.
Independence: The group shifted from being an ACI-sponsored event to a supplier-agnostic forum known as “The Payments Knowledge Forum” after ACI ended its direct involvement.
Legacy Transformation: In its later years, it was affectionately referred to as the “Everybody Belongs User’s Group”, reflecting its inclusive stance as “The Independent Group for All Payments System Users”.
Detailed Timeline
The history of EBUG is marked by its annual conferences held in major European cities and its eventual transition to an independent entity:
1980s: EBUG is established as a regional group for the growing BASE24 community in Europe.
Early 2000s: EBUG events gain prestige, featuring technical tracks on HPE NonStop transaction monitoring and payment security.
2006–2008: High-profile meetings held in cities such as Istanbul (2007) and Vienna (2008). The 2008 Vienna event was notable for discussing ACI’s strategic shift toward IBM platforms.
2009: The conference takes place in Prague, continuing strong support for BASE24 on NonStop despite broader industry shifts.
2012: The Technical Focus Group (TFG) is held in London at Trinity House. This marks a turning point as the event moved off ACI’s premises, signaling a shift in sponsorship dynamics.
2013: EBUG holds a major forum in Westminster, London, at the Institution of Civil Engineers. By this time, it is officially rebranding toward the broader “Payments Knowledge Forum”.
2015: EBUG fully transitions into the Payments Knowledge Forum, an annual gathering in London that continues the 30-year legacy as an independent, supplier-agnostic body.
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The Payments Knowledge Forum (PKF) is an independent, user-led resource dedicated to the exchange of information regarding payment systems. It operates without vendor affiliation, bringing together financial institutions, retailers, processors, and consultants to share practical expertise and shape the future of payment activities.
Overview of the Payments Knowledge Forum
Purpose: PKF serves as a collaborative hub for payment system users to discuss industry challenges, regulatory changes, and technical innovations.
Composition: The forum is open to a wide range of industry stakeholders, including:
Financial Institutions: Banks and building societies.
Retailers: Businesses focusing on consumer point-of-sale and e-commerce.
Payments Processors: Entities managing the technical execution of transactions.
Consultants: Experts providing strategic and technical guidance.
Governance: It is uniquely “run by users for the benefit of users,” ensuring that the information shared is neutral and prioritises the operational needs of the participants over commercial vendor interests.
Activities: PKF hosts regular events and an annual conference to address evolving topics such as ISO 20022 migration, central bank digital currencies (CBDC), and security frameworks like PSD2.
Detailed Timeline of Major Payment Milestones
The following timeline tracks critical industry milestones often discussed and addressed within the forum’s scope:
2015: The Payments Strategy Forum was established by the UK Payment Systems Regulator (PSR) to create a long-term roadmap for UK payments.
November 2016: Publication of the “Payments Strategy for the 21st Century,” introducing concepts like Request to Pay and enhanced data standards.
March 2018: Regulatory Technical Standards (RTS) for PSD2 were published, initiating the transition to Strong Customer Authentication (SCA).
November 2018: Launch of TARGET Instant Payment Settlement (TIPS), enabling real-time fund transfers across Europe.
September 2019: Full implementation of PSD2 security measures, including the requirement for standardised API interfaces for third-party access.
2020–2024: Acceleration of digital payment adoption following the COVID-19 pandemic, with a notable decline in cash usage at points of sale.
October 2021: The Financial Stability Board (FSB) published global targets for cost, speed, and transparency in cross-border payments.
February 2024: Swedish krona successfully onboarded to the TIPS platform.
April 2025: Danish kroner scheduled for onboarding to the TIPS system.
September 2025: Publication of the Digital Euro innovation platform outcome report, detailing findings for future development.
April 2026: Review of the Senior Managers and Certification Regime (SM&CR) to enhance accountability in financial services.
June 2026: Deadline for firms to demonstrate credible timetables for addressing climate-related financial risks.
2026 (Targeted): Anticipated go-live dates for enhanced access to the CHAPS high-value payment system.
Annual Conference & Resources
The PKF holds an annual conference that serves as its primary knowledge-sharing event.
Recent/Upcoming: The 2026 Conference continues the forum’s tradition of deep-diving into operational resilience and the digital transformation of finance.
Direct Access: For the latest news and detailed membership information, visit the The Payments Knowledge Forum Official Site.
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Some HPE NonStop BASE24 related User groups on LinkedIn :
Mark Whitfield is a highly experienced, SC-cleared Senior Engagement Project Manager at Capgemini UK (2016–present), specialising in complex Agile and Waterfall digital transformations, cloud migrations (Azure/AWS), and application modernisation.
Based in Manchester, he has delivered high-value projects for government, automotive, and aerospace sectors, often acting as a key client-side technical lead.
Key Capgemini Projects and Account Experience (2016–Present)
UK Government – Fish Export Service (£1m+): Served as Technical Delivery Manager (Nov 2023–Feb 2024), leading two Agile Scrum teams to build a CHIP inspection portal, extending APIs in MS Azure cloud.
UK Government – MS Dynamics Cloud Migration (£1m+): Managed start-up and delivery of Azure Cloud projects (Nov 2022), including migrating 12 Dynamics 2016 apps to Dynamics 365 Online.
UK Utility Industry – Cloud Migration (£0.5m+): Led the transition from a legacy document management system (EQS) to Microsoft Azure product Enablon.
Automotive – Digital Transformation (£1m+): As Engagement Manager (Oct 2017), managed a £670K Customer Portal/New Car Online Sales project and a £430K Digital Readiness project at the Aston Agile Delivery Centre.
Postal Services – Migration Project (£4.3m): Acted as PM for a major migration of 1100+ interfaces between data centres in 2016.
Aerospace & Defence – iOS App Delivery: Led Agile delivery of new Apple iOS apps for a UK-wide air traffic organisation, handling sensitive military and public-facing data.
MuleSoft (Oct 2018–June 2019): Augmented as a Delivery Manager, managing up to 5 UK accounts using Outcome Based Delivery (OBD) for API-led projects.
Betfred (2014–2016): Senior Digital Project Manager for online/mobile gambling platforms.
Wincor Nixdorf / Insider Technologies (1995–2013, see below also): Focused on HPE NonStop/BASE24 banking software and legacy ATM software replacement, including projects for Lloyds Banking Group and in Saudi Arabia.
Mark is recognized for being a “no-ego” leader, proactive with detail, and highly effective at managing complex stakeholder environments, often providing a “barrier” for developers against challenging clients, according to colleague feedback.
Mark Whitfield worked at Insider Technologies Limited (ITL) for 18 years, from 1995 to 2013. During his tenure, he progressed from technical roles to Manager of Strategic Technical Initiatives, serving as a Project Manager, Pre-sales Technical Consultant, and Team Lead.
Below is his work focus broken down by era and project type for Insider Technologies Limited, Salford Quays:
Early Era: Technical Foundations & Product Support (1995 – Early 2000s)
Whitfield’s initial focus was heavily technical, providing hands-on support and development specifications for the company’s core HP NonStop (Tandem) banking products.
Core Technical Support: Provided 24×7 technical support for major financial institutions including the Bank of England, Royal Bank of Scotland, and Euroclear (formerly CRESTCo).
Security & Cryptography: Supported Thales e-SECURITY products (Security Resource Manager and SafeSign) running on NSK, Windows, and Unix platforms, focusing on cryptographic functions like MACcing and PKI verification for banking applications.
Developer Management: Acted as a manager for developers, providing technical details and specifications for implementation on NonStop development projects.
Middle Era: Product Development & Design (Mid-2000s – 2008)
During this period, his role expanded into technical design and product management for new software solutions.
XPERT24 Product Launch: Produced the technical design documents and program specifications for XPERT24 (XPNET Performance Monitoring and Tracking).
Designed it to monitor the XPNET layer of BASE24, specifically tracking ATM/POS transaction interchange counters.
Authored the supporting marketing literature and technical user manuals.
R&D Initiatives: Led research and development for BASE24 (P)TLF log file analysis, integrating the Windows-based product Sentra to provide graphical front-end interfaces.
HSBC Implementation (2008): Headed the team that successfully delivered mainframe ATM and POS monitoring software to HSBC bank.
Late Era: Strategic Initiatives & Major Bids (2008 – 2013)
In his final years at ITL, he focused on large-scale business transformation and high-value project management.
Strategic Technical Initiatives: Served as the Manager of Strategic Technical Initiatives, bridging the gap between sales and technical delivery.
LloydsTSB ‘OISS’ Replacement: Managed a major bid to replace the legacy “OISS” operations tool at LloydsTSB (which monitored 5,000 ATMs) with ITL’s Reflex ONE24 product.
Responsible for gap analysis, technical assessment, and project costing.
Architecture & Design Partnerships: Worked closely with joint architects at Alliance & Leicester (now Santander) on the design and development of what would become a primary product set.
Product Portfolio Oversight: Managed the lifecycle of primary products including Reflex 80:20, Reflex ONE24, and the more recently introduced MultiBatch.
The University of Greater Manchester (formerly known as the University of Bolton from 2005 to 2024) is a public university based in Bolton, Greater Manchester, England.
University of Greater Manchester, from 2024
It is a “post-92” institution that officially rebranded in late 2024 to reflect its regional focus and, according to its vice-chancellor, to overcome employer prejudice against the smaller town name of Bolton. I studied Computing at Bolton Institute of Higher Education (BIHE) between 1988 to 1990 before it was elevated to University status.
The university dates its roots back to 1824 and focuses on applied research, practical skills, and teaching, with a strong regional reputation for student satisfaction.
🏛️ Comprehensive Insight: University of Greater Manchester
Location: Main campus on Deane Road and Derby Street in Bolton town centre, with a new city-centre partner campus (“UoB Manchester”) opened in 2023.
Origins: Founded as Bolton Mechanics’ Institute in 1824–1825.
Status: Granted taught degree-awarding powers in 1990/1992 and full university status in 2004/2005.
Key Focus: Teaching-intensive with a focus on employability, particularly in Nursing, Engineering, Business, and Creative Arts.
Size: Approximately 11,000–12,500 students, including international partnerships (e.g., Ras Al Khaimah, Colombo).
Rebrand: The University of Bolton rebranded to the University of Greater Manchester on December 20, 2024.
📜 Detailed Historic Timeline (1824–2025)
Era 1: Foundations (1824–1900)
1824/1825: Establishment of the Bolton Mechanics’ Institute to provide technical education to the working population.
Late 19th Century: The Institute becomes a vital hub for adult education in industrial Bolton.
Era 2: The Technical Institution (1900–1980)
Early 20th Century: The institution becomes known as Bolton Technical College, expanding technical and scientific skills.
1950s–1960s: Expansion of teacher training and higher-level technical qualifications.
1964: A 50-ton steam hammer is used at Thomas Walmsley’s Atlas Forge, which later becomes a heritage exhibit on the university’s Deane Campus.
Era 3: Formation of Higher Education (1980–2003)
1982: Bolton Institute of Higher Education (BIHE) is formed by merging the technical and education colleges.
BIHE – Bolton Institute of Higher Education
1990s: Gained taught degree-awarding powers (1990/1992) and research degree powers (1996).
1998: Mollie Temple becomes principal, leading a successful drive for full university status.
BIHE, view from front left side
Era 4: The University of Bolton (2004–2024)
2004–2005: Formally inaugurated as the University of Bolton following Privy Council approval.
University of Bolton, 2004 – 2024 – UoB
2012: Opened the £31 million “Bolton One” health and research facility in partnership with local NHS and council.
2019/2020: Responded to “The Cube” fire incident and launched initiatives during the COVID-19 pandemic.
2023: Opened a new partner campus in Manchester city centre (“UoB Manchester”) and initiated the name change process.
Era 5: The University of Greater Manchester (2024–Present)
Dec 20, 2024: Officially rebranded to the University of Greater Manchester.
University of Greater Manchester (front) from Dec 20, 2024
2025: Facing internal investigations regarding governance and financial management, while focusing on expanding health and engineering sectors.
The University of Greater Manchester based in Bolton
Mark Whitfield is a Senior IT Project Manager and Engagement Manager with over 30 years of experience in the software development lifecycle (SDLC), specializing in digital transformation, payment systems, and HPE NonStop (Tandem) technology.
He is SC cleared (valid until 2031) and currently works at Capgemini UK, having transitioned from a technical programming background to senior project leadership roles.
He is also the creator of PROject Templates, providing a comprehensive, editable suite of over 200 project management tools built over 24+ years of experience.
Comprehensive Career Timeline by Era
1. Technical Foundations & Mainframe Development (1990–1995)
1990: Graduated in Computing at University of Bolton; started as a programmer at The Software Partnership (later Deluxe Data), Runcorn.
1990–1994: Specialised in electronic banking software (sp/ARCHITECT-BANK) on Tandem Mainframe Computers (HPE NonStop), developing in COBOL85 and NonStop SQL for major banks.
1994: Developed batch billing modules for Barclays Business Master II (BBM II) on-site in Knutsford and Poole.
1995–2013: Worked at Insider Technologies Limited as Senior Development Engineer/ Project Manager.
1997: Conducted volume testing/benchmark software for CRESTCo (now Euroclear) on new S7000 hp NonStop nodes.
2002: Managed and attained the first HP OpenView Operations 2-way Smart Plug-In (SPI) certification for the HPE NonStop platform.
2000s (Early): Developed RTLX (Real-Time Log Extraction) for BASE24 POS and ATM transaction monitoring, collaborating with banking clients like HSBC and Global Payments.
2013: Delivered a large BASE24 transaction tracking project at Al Rajhi Bank in Riyadh, Saudi Arabia.